We present the design and implementation of a system that enables trusted computing for an unlimited number of virtual machines on a single hardware platform. To this end, we virtualized the Trusted Platform Module (TPM). As a result, the TPM’s secure storage and cryptographic functions

sidestep the difficult challenge of re-verifying the se-curity properties of a new TPM design. We demonstrate cTPM’s versatility with two case studies: extending Pas-ture with additional functionality, and re-implementing TrInc without the need for extra hardware. 1

for cross-device functionality. Specifically, we have identified three limitations in the TPM design that hamper building cross-device trusted applications. Limitation 1: Cross-Device Data Sharing. Current TPM abstractions offer guarantees about one single computer, and TPM's hardware protection

Abstract. Sequence analysis of chromosome IX of Saccharomyces cerevisiae revealed an open reading frame of 166 residues, designated TPM2, having 64.5 % sequence identity to TPM/, that encodes the major form of tropomyosin in yeast. Purification and characterization of Tpm2p revealed a protein

Abstract—The addition of security-oriented hardware devices such as Trusted Platform Modules (TPMs) to computing systems, as promoted by the Trusted Computing Group, leads to many interesting possibilities. Many interesting research questions are of the form “What if the TPM could do x?”, but since

Purpose – To provide maintenance engineering community with a model named “Maintenance quality function deployment ” (MQFD) for nourishing the synergy of quality function deployment (QFD) and total productive maintenance (TPM) and enhancing maintenance quality of products and equipment. Design

can be further used. The paper is organized as: Section 1 gives introduction about maintenance function. Section 2 discusses literature review regarding development of TPM. Section 3 gives details about the steps in implementation of TPM. Section 4 describes detailed TPM implementation in the case

that we can facilitate e-commerce transactions such as digital wallets, e-cash and offline payments using TPMs. In this paper, we experimentally evaluate the performance of digital wallets that are implemented using TPM-based functionality. In particular, we study how different approaches of implementing

for the implementation of Total Productivity Maintenance (TPM) in an organization. A TPM implementation methodol-ogy has been developed for identification of weight and priorities of TPM attributes by using pare-wise comparison (PCM) method of AHP. The result of this paper is evident that TPM can bring in commendable

Module (TPM) providing certain cryptographic func-tions. Many vendors currently equip their platforms with a TPM claiming to be TCG compliant. How-ever, there is no feasible way for application devel-opers and users of TPM-enabled systems to verify this compliance. In practice, manufacturers may ex