mhurhangee/patent-ind-claim-en huggingface dataset:
A person support apparatus comprising: a base ; a plurality of wheels coupled to the base ; a litter ; a support surface mounted on top of the litter and adapted to support thereon an occupant of the person support apparatus ; a lift system adapted to adjust a height of the litter , which is mounted on top of the lift system , and support surface with respect to the base ; and a control including a handle positioned at the litter and adapted to move upward and downward with the litter , the control in communication with the lift system , and the control adapted to control the lift system in response to upward or downward forces applied to the control , characterized in that the person support apparatus further comprises a drive system coupled to at least one of the wheels to drive the person support apparatus in a forward and reverse direction, in that the control is in communication with the drive system , and in that the control is adapted to control the drive system in response to forward forces applied to the control . a base ; a plurality of wheels coupled to the base ; a litter ; a support surface mounted on top of the litter and adapted to support thereon an occupant of the person support apparatus ; a lift system adapted to adjust a height of the litter , which is mounted on top of the lift system , and support surface with respect to the base ; and a control including a handle positioned at the litter and adapted to move upward and downward with the litter , the control in communication with the lift system , and the control adapted to control the lift system in response to upward or downward forces applied to the control , characterized in that the person support apparatus further comprises a drive system coupled to at least one of the wheels to drive the person support apparatus in a forward and reverse direction, in that the control is in communication with the drive system , and in that the control is adapted to control the drive system in response to forward forces applied to the control .
A method comprising: computing a transmission efficiency E for a transport block by a mobile station in a wireless network , wherein the transport block is repeatedly transmitted with a repetition number n rep greater than zero such that the transport block is received with a predefined receiving quality; determining a channel quality indicator based on at least the computed transmission efficiency E; and transmitting the determined channel quality indicator to a base station via the wireless network , characterized in that the transmission efficiency E is computed based on a size S (S218, S228, S238) of the transport block , a number n er of resource elements used in each repetition , and the repetition number n rep , wherein the transmission efficiency E is determined by: E = S / n er * n rep . computing a transmission efficiency E for a transport block by a mobile station in a wireless network , wherein the transport block is repeatedly transmitted with a repetition number n rep greater than zero such that the transport block is received with a predefined receiving quality; determining a channel quality indicator based on at least the computed transmission efficiency E; and transmitting the determined channel quality indicator to a base station via the wireless network , characterized in that
A polypeptide comprising a primate cystathionine gamma-lyase (CGL) variant, having methionine gamma-lyase activity, having a sequence at least 95% identical to a native CGL sequence of any one of SEQ ID NO: 1, SEQ ID NO: 18, SEQ ID NO: 19 and SEQ ID NO: 20 and comprising amino acid substitutions of at least (i) 59V or 59N, (ii) R119L, and (iii) E339V of SEQ ID NO: 1.
A filtering device, comprising: a housing , comprising an inner cavity; a resonant conductor , disposed inside the inner cavity, wherein the resonant conductor is disposed inside the cavity by plugging in, and the resonant conductor is vertically or horizontally disposed inside the inner cavity; a pressing element , having one end disposed on the housing and another end suspended, and facing a position of an open-circuit end of the resonant conductor , wherein a distance between the pressing element and the resonant conductor is changeable by pressing or drawing the pressing element , to thereby adjust a resonant frequency; and a cavity terminal integrally formed with the housing , wherein the cavity terminal is configured to electrically connect a short circuit end of the resonant conductor to the housing , and configured to support the resonant conductor , when the resonant conductor is disposed inside the inner cavity. a housing , comprising an inner cavity; a resonant conductor , disposed inside the inner cavity, wherein the resonant conductor is disposed inside the cavity by plugging in, and the resonant conductor is vertically or horizontally disposed inside the inner cavity; a pressing element , having one end disposed on the housing and another end suspended, and facing a position of an open-circuit end of the resonant conductor , wherein a distance between the pressing element and the resonant conductor is changeable by pressing or drawing the pressing element , to thereby adjust a resonant frequency; and a cavity terminal integrally formed with the housing , wherein the cavity terminal is configured to electrically connect a short circuit end of the resonant conductor to the housing , and configured to support the resonant conductor , when the resonant conductor is disposed inside the inner cavity.
A method of manufacturing a plurality of wear liner segments , the method comprising: defining a plurality of cutouts on a textile board , each cutout comprising an arcuate shape having an arc angle less than or equal to 180 degrees, each cutout being adjacent to an adjacent cutout in the plurality of cutouts , the textile board comprising a carbon composite matrix; cutting the plurality of cutouts out of the textile board ; arranging the plurality of cutouts on a tray for placement in a furnace; and placing the tray in the furnace. defining a plurality of cutouts on a textile board , each cutout comprising an arcuate shape having an arc angle less than or equal to 180 degrees, each cutout being adjacent to an adjacent cutout in the plurality of cutouts , the textile board comprising a carbon composite matrix; cutting the plurality of cutouts out of the textile board ; arranging the plurality of cutouts on a tray for placement in a furnace; and placing the tray in the furnace.
A display apparatus comprising: a signal receiver configured to receive a broadcast signal; a signal processor configured to process the received broadcast signal; a display configured to display an image based on the processed broadcast signal; a user input receiver configured to receive a user input; and a storage ; characterised by the display apparatus further comprising: a controller configured to control the storage to store information about an external device being registered to a first channel among a plurality of channels of the display apparatus in accordance with the user input, in response to the first channel being selected based on the user input, display on the display a user interface, UI, for controlling the registered external device corresponding to the first channel, and control the registered external device via the UI. a signal receiver configured to receive a broadcast signal; a signal processor configured to process the received broadcast signal; a display configured to display an image based on the processed broadcast signal; a user input receiver configured to receive a user input; and a storage ; characterised by the display apparatus further comprising: a controller configured to control the storage to store information about an external device being registered to a first channel among a plurality of channels of the display apparatus in accordance with the user input, in response to the first channel being selected based on the user input, display on the display a user interface, UI, for controlling the registered external device corresponding to the first channel, and control the registered external device via the UI.
A method comprising: receiving, at a host machine , guest software to run in a Native Client environment, wherein the guest software is configured to execute at a specified guest hardware architecture and not within the Native Client environment, wherein the Native Client environment is a sandboxing environment deploying software fault isolation and binary code validation; providing, using emulation software, a binary translation of the guest software into Native Client compatible machine code , wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software , and without porting or recompiling the guest software , and wherein providing the binary translation interleaves with execution of the emulated guest characterised in that the emulation software supports emulation of guest platform-specific asynchronous signals by periodically checking a pending signals mask and explicitly invoking a guest-specific signal handler once the signal is raised. receiving, at a host machine , guest software to run in a Native Client environment, wherein the guest software is configured to execute at a specified guest hardware architecture and not within the Native Client environment, wherein the Native Client environment is a sandboxing environment deploying software fault isolation and binary code validation; providing, using emulation software, a binary translation of the guest software into Native Client compatible machine code , wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software , and without porting or recompiling the guest software , and wherein providing the binary translation interleaves with execution of the emulated guest wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software , and without porting or recompiling the guest software , and wherein providing the binary translation interleaves with execution of the emulated guest
A roll-over protection apparatus for attachment to a vehicle , the protection apparatus comprising: a first body mounted relative to a second body ; the second body for attaching to the vehicle ; and a joining assembly joining the second body relative to the first body ; wherein upon application of a load to the first body the joining assembly is configured to allow limited deflection of the first body relative to the second body from a first position in a first direction (A,) and substantially no deflection of the first body relative to the second body from the first position in a second direction (B), characterized by the joining assembly being configured to allow a degree of deflection of the first body relative to the second body from the first position in at least a third direction (C), the degree of deflection in the third direction being less than the limited amount of deflection in the first direction (A), wherein the first body returns to the first position upon removal of the load. a first body mounted relative to a second body ; the second body for attaching to the vehicle ; and a joining assembly joining the second body relative to the first body ; wherein upon application of a load to the first body the joining assembly is configured to allow limited deflection of the first body relative to the second body from a first position in a first direction (A,) and substantially no deflection of the first body relative to the second body from the first position in a second direction (B), characterized by the joining assembly being configured to allow a degree of deflection of the first body relative to the second body from the first position in at least a third direction (C), the degree of deflection in the third direction being less than the limited amount of deflection in the first direction (A), wherein the first body returns to the first position upon removal of the load.
A hybrid module for a drive train of a motor vehicle, with a first clutch and an intermediate shaft connected to a rotating component of the first clutch , so as to rotate with it, wherein the intermediate shaft is or can be coupled to a rotating component of a second clutch , so as to rotate with it, wherein the intermediate shaft is connected to a flywheel which at least partially forms the rotating component of the second clutch , characterised in that the flywheel has a first component formed from a metal sheet and a second component formed from a metal casting.
A telescopic rail having at least one first and one second rail element , each of which is supported for longitudinal displacement on a third, middle rail element by way of rolling elements , wherein the rolling elements circulate in at least one circulation path , wherein the circulation path is arranged on the middle rail element , wherein the circulation path has a first and a second section , each running in the extension direction of the telescopic rail, wherein the sections are connected to each other at the ends thereof in each case via a redirecting section , wherein the first section serves to support the first rail element on the middle rail element and the second section serves to support the second rail element on the middle rail element , characterized in that the first and/or the second section surround(s) the rolling elements over more than 180°. wherein the circulation path is arranged on the middle rail element , wherein the circulation path has a first and a second section , each running in the extension direction of the telescopic rail, wherein the sections are connected to each other at the ends thereof in each case via a redirecting section , wherein the first section serves to support the first rail element on the middle rail element and the second section serves to support the second rail element on the middle rail element , characterized in that the first and/or the second section surround(s) the rolling elements over more than 180°.
A semiconductor nano-sized light emitting material comprising or consisting of a core, optionally one or more shell layers and a ligand coated onto the core or the outermost surface of the shell layers, wherein the ligand is at least one thio metal salt wherein said ligand is represented by formula (I) in which M stands for a bivalent metal, preferably zinc, magnesium, copper or their mixtures; X stands for -O- or -S- or -NR 2 -; Y 1 stands for -O- or -S-; R 1 , R 2 stand independently from each other for an alkyl, alkenyl, alkynyl, aryl and/or aralkyl chain having 7 to 25 carbon atoms, optionally substituted by a functional group; or a group according to formula (II) and/or (III) -(CHR 5 ) x O(CHR 5 ) y2 -NR 3 R 4 (II) -(CH 2 CHR 5 O) z R 6 (III) R 3 , R 4 stand independently from each other linear or branched alkyl chains having 1 to 6 carbon atoms; R 5 stands for hydrogen or methyl; R 6 stands for an alkyl chain having 1 to 4 carbon atoms, optionally substituted by a functional group; x, y2 stand independently from each other for integers of from 1 to 5; and z stands for an integer of from 1 to 30. M stands for a bivalent metal, preferably zinc, magnesium, copper or their mixtures; X stands for -O- or -S- or -NR 2 -; Y 1 stands for -O- or -S-; R 1 , R 2 stand independently from each other for an alkyl, alkenyl, alkynyl, aryl and/or aralkyl chain having 7 to 25 carbon atoms, optionally substituted by a functional group; or a group according to formula (II) and/or (III) -(CHR 5 ) x O(CHR 5 ) y2 -NR 3 R 4 (II) -(CH 2 CHR 5 O) z R 6 (III) R 3 , R 4 stand independently from each other linear or branched alkyl chains having 1 to 6 carbon atoms; R 5 stands for hydrogen or methyl; R 6 stands for an alkyl chain having 1 to 4 carbon atoms, optionally substituted by a functional group; x, y2 stand independently from each other for integers of from 1 to 5; and z stands for an integer of from 1 to 30.
A radon sensor instrument , comprising: first and second housing parts which mate together to form an instrument housing; first and second diffusion chamber parts which mate together to form a diffusion chamber ; and a detector located within the diffusion chamber ; wherein at least one of the first and second diffusion chamber parts is integrally formed with at least one of the first and second housing parts ; characterized by a first printed circuit board housed within the instrument housing outside the diffusion chamber ; wherein the first printed circuit board is arranged to process a signal from said detector . first and second housing parts which mate together to form an instrument housing; first and second diffusion chamber parts which mate together to form a diffusion chamber ; and a detector located within the diffusion chamber ; wherein at least one of the first and second diffusion chamber parts is integrally formed with at least one of the first and second housing parts ; characterized by a first printed circuit board housed within the instrument housing outside the diffusion chamber ; wherein the first printed circuit board is arranged to process a signal from said detector .
A mechanical system forming a cam follower or a rocker arm, the mechanical system comprising: - a support element , - a pin extending between two opposite ends along a first axis (X1), and - a roller mounted on the pin , movable in rotation relative to the pin around the first axis (X1) and adapted to roll on a cam , the support element further comprising an insert having holding members supporting the pin ends , wherein : - the pin , the roller and the insert are inserted inside the support element , - the support element comprises first axial abutment means , and - the mechanical system includes second abutment means blocking the translation of the insert , characterized in that : - the holding members are provided with cut-outs having a shape complementary to the shape of the pin-ends , for assembling the pin with the insert by quarter-turn around the first axis (X1), - the pin ends each have a flat surface and an external surface, - the first axial abutment means protrude outside a cavity (C10) delimited by the support element and receiving the pin , and block the translation of the pin , in a first direction parallel to a longitudinal axis (Y1), the longitudinal axis (Y1) being perpendicular to the first axis (X1), and - the second abutment means block the translation of the insert in a second direction opposite the first direction. - a support element , - a pin extending between two opposite ends along a first axis (X1), and - a roller mounted on the pin , movable in rotation relative to the pin around the first axis (X1) and adapted to roll on a cam , - the pin , the roller and the insert are inserted inside the support element , - the support element comprises first axial abutment means , and - the mechanical system includes second abutment means blocking the translation of the insert , - the holding members are provided with cut-outs having a shape complementary to the shape of the pin-ends , for assembling the pin with the insert by quarter-turn around the first axis (X1), - the pin ends each have a flat surface and an external surface, - the first axial abutment means protrude outside a cavity (C10) delimited by the support element and receiving the pin , and block the translation of the pin , in a first direction parallel to a longitudinal axis (Y1), the longitudinal axis (Y1) being perpendicular to the first axis (X1), and - the second abutment means block the translation of the insert in a second direction opposite the first direction.
Device for sealing a building opening having a flat closing element and a frame firmly attachable to an edge of the building opening, the flat closing element being a door leaf/casement pivotable relative to the frame, wherein the flat closing element and/or the frame firmly attachable to the edge of the building opening has a frame profile , which borders, in its longitudinal direction, a hollow profile section that opens out to a folding surface, by three surfaces arranged relative to each other in U-form, wherein the surfaces have two lateral surfaces , wherein, from each of the two lateral surfaces , a profile wall juts out towards the other lateral surface , which narrows down locally the widths of the hollow profile section when seen in cross section, and wherein fitting parts are attached to these jutting profile walls using clamping elements , by sandwiching the jutting profile walls between the respective fitting part and the respective clamping element and by the clamping element and the fitting part spanning the hollow section, characterized in that a connection between the fitting part and the jutting profile walls is made such that the connection blocks, in a positive-locking manner, a relative movement of the profile walls towards and away from each other, wherein, in order to establish the positive-locking blocking, a touching geometry between the jutting profile walls and the fitting part is made such that the fitting part, on both of the jutting profile walls, abuts on either side of a groove which is formed on each of the jutting profile walls and whose opening area lies parallel to the connecting surface between the two jutting profile walls, wherein a space between either sides of the groove , at those areas, which the fitting part touches, narrows with increasing groove depth. the surfaces have two lateral surfaces , wherein, from each of the two lateral surfaces , a profile wall juts out towards the other lateral surface , which narrows down locally the widths of the hollow profile section when seen in cross section, and wherein fitting parts are attached to these jutting profile walls using clamping elements , by sandwiching the jutting profile walls between the respective fitting part and the respective clamping element and by the clamping element and the fitting part spanning the hollow section, characterized in that a connection between the fitting part and the jutting profile walls is made such that the connection blocks, in a positive-locking manner, a relative movement of the profile walls towards and away from each other, wherein, in order to establish the positive-locking blocking, a touching geometry between the jutting profile walls and the fitting part is made such that the fitting part, on both of the jutting profile walls, abuts on either side of a groove which is formed on each of the jutting profile walls and whose opening area lies parallel to the connecting surface between the two jutting profile walls, wherein a space between either sides of the groove , at those areas, which the fitting part touches, narrows with increasing groove depth.