mhurhangee/patent-ind-claim-en huggingface dataset:
A secure startup method, wherein the method is performed by a target controller and comprises: sending (S201) startup information to an auxiliary controller , wherein the auxiliary controller comprises a secure storage unit that stores first public key information, the secure storage unit has a tamper resistance function, the first public key information is used to authenticate the target controller , and the startup information is used to trigger the auxiliary controller to authenticate a first program of the target controller ; receiving (S203) challenge information sent by the auxiliary controller , and obtaining (S203) response information based on the challenge information, wherein the response information comprises first information and second information, wherein the first information is a hash value of an image of a boot code control program and/or a hash value of an image of a system control program, and the second information is a signature value of the first information; sending (S205) the response information to the auxiliary controller ; receiving running information sent by the auxiliary controller , wherein the running information is used to notify the target controller whether the second information is verified; and running the first program when the second information is verified, wherein the first program comprises the boot code control program and/or the system control program. sending (S201) startup information to an auxiliary controller , wherein the auxiliary controller comprises a secure storage unit that stores first public key information, the secure storage unit has a tamper resistance function, the first public key information is used to authenticate the target controller , and the startup information is used to trigger the auxiliary controller to authenticate a first program of the target controller ; receiving (S203) challenge information sent by the auxiliary controller , and obtaining (S203) response information based on the challenge information, wherein the response information comprises first information and second information, wherein the first information is a hash value of an image of a boot code control program and/or a hash value of an image of a system control program, and the second information is a signature value of the first information; sending (S205) the response information to the auxiliary controller ; receiving running information sent by the auxiliary controller , wherein the running information is used to notify the target controller whether the second information is verified; and running the first program when the second information is verified, wherein the first program comprises the boot code control program and/or the system control program.
An apparatus comprising: a left-ventricular assist device comprising: an impeller configured to be placed inside a left ventricle of a subject and to pump blood from the left ventricle to an aorta of the subject, by rotating; a frame disposed around the impeller , the frame comprising a plurality of strut junctions at a proximal end of the frame; and a pump-outlet tube configured to traverse an aortic valve of the subject, such that a proximal portion of the pump-outlet tube is disposed within the subject's aorta and a distal portion of the pump-outlet tube is disposed within the subject's left ventricle, the distal portion of the pump-outlet tube extending to a distal end of the frame and defining one or more lateral blood inlet openings that are configured to allow blood to flow from the subject's left ventricle into the pump-outlet tube , characterized in that : the strut junctions are configured to be maintained in open states, during assembly of the left ventricular assist device, to facilitate insertion of the impeller into the frame; and the left-ventricular assist device further comprises a securing element configured to hold the struts junctions in closed states, subsequent to the insertion of the impeller into the frame. an impeller configured to be placed inside a left ventricle of a subject and to pump blood from the left ventricle to an aorta of the subject, by rotating; a frame disposed around the impeller , the frame comprising a plurality of strut junctions at a proximal end of the frame; and a pump-outlet tube configured to traverse an aortic valve of the subject, such that a proximal portion of the pump-outlet tube is disposed within the subject's aorta and a distal portion of the pump-outlet tube is disposed within the subject's left ventricle, the distal portion of the pump-outlet tube extending to a distal end of the frame and defining one or more lateral blood inlet openings that are configured to allow blood to flow from the subject's left ventricle into the pump-outlet tube , characterized in that : the strut junctions are configured to be maintained in open states, during assembly of the left ventricular assist device, to facilitate insertion of the impeller into the frame; and the left-ventricular assist device further comprises a securing element configured to hold the struts junctions in closed states, subsequent to the insertion of the impeller into the frame. the strut junctions are configured to be maintained in open states, during assembly of the left ventricular assist device, to facilitate insertion of the impeller into the frame; and the left-ventricular assist device further comprises a securing element configured to hold the struts junctions in closed states, subsequent to the insertion of the impeller into the frame.
A process for preparing animal feed from mussels, comprising: decomposing the mussel meat of the mussels by dissolution, comprising heating the mussels to a temperature of between 30 and 50 °C while stirring without adding exogenous enzymes, to form a suspension of liquefied mussel meat, shells and shells having mussel meat attached thereto, and separating shells and shells having mussel meat attached thereto from the suspension, to form a liquefied mussel meat fraction. decomposing the mussel meat of the mussels by dissolution, comprising heating the mussels to a temperature of between 30 and 50 °C while stirring without adding exogenous enzymes, to form a suspension of liquefied mussel meat, shells and shells having mussel meat attached thereto, and separating shells and shells having mussel meat attached thereto from the suspension, to form a liquefied mussel meat fraction.
A cooling apparatus , comprising: a shared cooling device for one or more systems or components; a plurality of primary cooling pathways, wherein each of the primary cooling pathways comprises: a transition duct , wherein the transition duct is in fluid communication with the shared cooling device ; and a fan , wherein the fan is in fluid communication with the transition duct ; and characterized by a shared connector in fluid communication with the shared cooling device ; wherein the shared connector comprises a plurality of channels ; and wherein each of the primary cooling pathways is operably configured to be in fluid communication with one of the channels . a shared cooling device for one or more systems or components; a plurality of primary cooling pathways, wherein each of the primary cooling pathways comprises: a transition duct , wherein the transition duct is in fluid communication with the shared cooling device ; and a fan , wherein the fan is in fluid communication with the transition duct ; and characterized by a transition duct , wherein the transition duct is in fluid communication with the shared cooling device ; and a fan , wherein the fan is in fluid communication with the transition duct ; and characterized by a shared connector in fluid communication with the shared cooling device ; wherein the shared connector comprises a plurality of channels ; and wherein each of the primary cooling pathways is operably configured to be in fluid communication with one of the channels .
A program generating device comprising: - a memory unit configured to store an older version of a program which is same as a program stored in a non-volatile memory of a vehicle -mounted control device and a new program which is an update of the older version of the program; - a computation unit configured to include - a dividing unit that generates first data including at least one piece of data obtained by dividing the older version of the program into a block size of the non-volatile memory and second data including one piece of data obtained by dividing the new program into the block size of the non-volatile memory , - a difference generating unit that generates a difference between the first data and the second data, - a compression unit that generates compressed difference data in which the difference is compressed, and - a selection unit for generating compressed data in which the second data is compressed and selecting smaller data from the compressed difference data and compressed data as selected data when a size of the compressed difference data is equal to or greater than a reference value and when the size of the compressed difference data is smaller than the reference value, outputting the compressed difference data as selected data; and - a communication unit configured to transmit the selected data to the vehicle-mounted control device , wherein the compressed difference data is data in which the difference between the first data and the second data of different blocks is compressed. - a memory unit configured to store an older version of a program which is same as a program stored in a non-volatile memory of a vehicle -mounted control device and a new program which is an update of the older version of the program; - a computation unit configured to include - a dividing unit that generates first data including at least one piece of data obtained by dividing the older version of the program into a block size of the non-volatile memory and second data including one piece of data obtained by dividing the new program into the block size of the non-volatile memory , - a difference generating unit that generates a difference between the first data and the second data, - a compression unit that generates compressed difference data in which the difference is compressed, and - a selection unit for generating compressed data in which the second data is compressed and selecting smaller data from the compressed difference data and compressed data as selected data when a size of the compressed difference data is equal to or greater than a reference value and when the size of the compressed difference data is smaller than the reference value, outputting the compressed difference data as selected data; and - a communication unit configured to transmit the selected data to the vehicle-mounted control device , wherein the compressed difference data is data in which the difference between the first data and the second data of different blocks is compressed.
A mounting collar , comprising: a collar body comprising an opening for receiving at least a portion of an electronics component of an electronics assembly , and a non-uniform outer surface that extends about an entire height of the collar body, the non-uniform outer surface comprising a riser collar portion and a base collar portion , the riser collar portion having a width (W3) greater than a width (W2) of the base collar portion, such that the collar body is nestable with an adjacent collar body supported by the electronics assembly ; and a radial retention component supported about an inner surface of the opening of the collar body , the radial retention component being operable to apply a radial force on the electronics component to at least partially support the electronics component . a collar body comprising an opening for receiving at least a portion of an electronics component of an electronics assembly , and a non-uniform outer surface that extends about an entire height of the collar body, the non-uniform outer surface comprising a riser collar portion and a base collar portion , the riser collar portion having a width (W3) greater than a width (W2) of the base collar portion, such that the collar body is nestable with an adjacent collar body supported by the electronics assembly ; and a radial retention component supported about an inner surface of the opening of the collar body , the radial retention component being operable to apply a radial force on the electronics component to at least partially support the electronics component .
A multi-dye conjugate comprising a tissue reactive moiety and at least two chromophores, wherein the tissue reactive moiety is a moiety capable of reacting with an enzyme and is selected from the group consisting of a quinone methide precursor or a tyramide, and wherein the at least two chromophores are different and are conjugated to the tissue reactive moiety through a multi-functional linker.
A method for executing a single-threaded smart card application in a multi-threaded runtime environment on a next generation smart card, the method comprising: executing a set of applications, including multi-threaded applications, on a virtual machine on the smart card, wherein at least one application in said set of applications is a legacy application designed to run in a single-threaded environment, and wherein the legacy application is accessible to other applications in the set of applications through a shareable interface object, wherein the legacy application includes one or more files in a CAP file format; generating, on the virtual machine, a specialized environment in which the legacy application can execute safely, wherein said specialized environment includes a proxy object which encapsulates the shareable interface object, and wherein said proxy object controls access by the other applications in said set of applications to the shareable interface object such that only one application is allowed to access code in the legacy application at a time, wherein the one or more files are converted from the CAP file format into a Class file format before executing the legacy application; detecting, by the virtual machine, that the legacy application is accessing an existing object in memory that is intended by the legacy application to be shared; and creating, by the virtual machine, a new copy of the object corresponding to the previously-shared object in memory to cause the object to no longer be shared. executing a set of applications, including multi-threaded applications, on a virtual machine on the smart card, wherein at least one application in said set of applications is a legacy application designed to run in a single-threaded environment, and wherein the legacy application is accessible to other applications in the set of applications through a shareable interface object, wherein the legacy application includes one or more files in a CAP file format; generating, on the virtual machine, a specialized environment in which the legacy application can execute safely, wherein said specialized environment includes a proxy object which encapsulates the shareable interface object, and wherein said proxy object controls access by the other applications in said set of applications to the shareable interface object such that only one application is allowed to access code in the legacy application at a time, wherein the one or more files are converted from the CAP file format into a Class file format before executing the legacy application; detecting, by the virtual machine, that the legacy application is accessing an existing object in memory that is intended by the legacy application to be shared; and creating, by the virtual machine, a new copy of the object corresponding to the previously-shared object in memory to cause the object to no longer be shared.
Method of producing a lid of paper for containers, particularly lids for packaging containers, wherein the packaging containers can be cups, tubs or the like, wherein the lid is constructed as a sit-on lid, a snap-fit lid or an insert lid with an encircling, preferably downwardly directed, edge , wherein a flatly disposed blank is deep-drawn, i.e. drawn into a mould in classic manner by sub-atmospheric pressure, or reshaping is undertaken by excess pressure or stamping and thus initially a bead is formed or that a channel is formed in a flatly disposed blank in the region of the bead to be formed and the bead is thus formed, characterised in that radii are provided in the region of the transition between lid surface and bead and stampings for stabilising the transition are formed.
Negative-pressure tank having at least one partition, wherein the partition includes at least two walls (1.1, 1.2), and the negative-pressure tank includes at least two chambers , wherein the partition separates the chambers , and the two walls (1.1, 1.2) of the partition are connected to one another, at least one free space being present in the partition , wherein the partition is a partition which deforms under negative pressure, wherein the walls (1.1, 1.2) of the partition are connected at at least one point or line, characterized in that the free space has a pressure which corresponds to ambient pressure.
A fluff pulp, comprising: (a) a multivalent cationic metal ion selected from the group consisting of Al +3 , B +3 , Mn +2 , Cu +2 , Cu +3 , Zn +2 , Sn +2 , Sn +4 , water-soluble salt thereof, or combination thereof; (b) an amine-containing anti-static agent, wherein the amine containing anti-static agent comprises COCO alkyl dimethyl benzyl ammonium chloride; and (c) pulp. (a) a multivalent cationic metal ion selected from the group consisting of Al +3 , B +3 , Mn +2 , Cu +2 , Cu +3 , Zn +2 , Sn +2 , Sn +4 , water-soluble salt thereof, or combination thereof; (b) an amine-containing anti-static agent, wherein the amine containing anti-static agent comprises COCO alkyl dimethyl benzyl ammonium chloride; and (c) pulp.
Method for connecting at least two sheet-metal parts , in which an embossing element is attached to the first sheet-metal part , and the embossing element attached to the first sheet-metal part is then welded to the second sheet-metal part , characterized in that, in order to attach the first sheet-metal part , the embossing element is pressed into the material of the first sheet-metal part in a deep-drawing process in a deep-drawing direction (T), and a positive connection is established with the first sheet-metal part by plastic deformation, wherein the welding takes place by means of spot welding with spot-welding electrodes , and wherein the attachment of the embossing element to the first sheet-metal part takes place in a deep-drawing tool , which has a die in the recess of which the first sheet-metal part is deep drawn, and has a pressing tappet which presses the embossing element into the first sheet-metal part , whereby the deep-drawing process takes place, wherein, during embossing, an element contour protruding from the sheet-metal material is generated via a corresponding embossing contour of the embossing stamp front face, and wherein, during the welding process, the spot-welding electrodes are attached to the side, facing away from the embossing element , of the first sheet-metal part and of the second sheet-metal part .
A transcutaneous electrical nerve stimulation unit (A) for treatment of pain comprising: an applicator having an applicator head ; a set of generally rectangular electrodes disposed on the applicator head operatively connected to an electric pulse provider ; and an insulative land disposed between the electrodes with a shorter side of the electrodes flanking the insulative land on the applicator head characterised in that a surface of the insulating land is generally coplanar with a surface of the set of electrodes and in that the applicator head is configured to be pressed against the treatment area such that the electrodes and the insulative land compress the flesh and flatten the nerves under the insulative land . an applicator having an applicator head ; a set of generally rectangular electrodes disposed on the applicator head operatively connected to an electric pulse provider ; and an insulative land disposed between the electrodes with a shorter side of the electrodes flanking the insulative land on the applicator head characterised in that a surface of the insulating land is generally coplanar with a surface of the set of electrodes and in that the applicator head is configured to be pressed against the treatment area such that the electrodes and the insulative land compress the flesh and flatten the nerves under the insulative land .
A combustor assembly alignment system being configured to be disposed on a combustor assembly of a turbomachine, the combustor assembly alignment system comprising: an alignment plate comprising a plurality of alignment plate holes that align with a plurality of combustor assembly flange holes ; an alignment plate securement system configured to secure the alignment plate to a combustor assembly flange by passing through a first alignment plate hole of the alignment plate and a first combustor assembly flange hole of the combustor assembly flange ; characterized in that the combustor assembly alignment system further comprises: an alignment tube that extends away from the alignment plate and comprises a configuration that allows for an alignment rod to pass through, wherein a hollow interior of the alignment tube aligns with a second combustor assembly flange hole when the alignment plate is secured to the combustor assembly flange . an alignment plate comprising a plurality of alignment plate holes that align with a plurality of combustor assembly flange holes ; an alignment plate securement system configured to secure the alignment plate to a combustor assembly flange by passing through a first alignment plate hole of the alignment plate and a first combustor assembly flange hole of the combustor assembly flange ; characterized in that the combustor assembly alignment system further comprises: an alignment tube that extends away from the alignment plate and comprises a configuration that allows for an alignment rod to pass through, wherein a hollow interior of the alignment tube aligns with a second combustor assembly flange hole when the alignment plate is secured to the combustor assembly flange .