mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical work appliance comprising: an appliance housing having an electric motor for driving a work tool , a control unit for putting the electric motor into operation, a handle housing that has at least one handle for guiding the work appliance , a receiving cavity , realized in the handle housing , having an insertion opening for a battery pack for operating the electric motor , wherein the battery pack is held in an exchangeable manner in the receiving cavity , and, for the purpose of vibration decoupling, the handle housing , together with the receiving cavity for the battery pack , is decoupled from the appliance housing by means of at least one and the same antivibration element , and a vibration gap is realized between the appliance housing and the handle housing , wherein the antivibration element at least partly bridges the vibration gap between the handle housing and the appliance housing , characterized in that the handle housing has a rear handle that is distal from the work tool , and a front handle that is proximal to the work tool . an appliance housing having an electric motor for driving a work tool , a control unit for putting the electric motor into operation, a handle housing that has at least one handle for guiding the work appliance , a receiving cavity , realized in the handle housing , having an insertion opening for a battery pack for operating the electric motor , wherein the battery pack is held in an exchangeable manner in the receiving cavity , and, for the purpose of vibration decoupling, the handle housing , together with the receiving cavity for the battery pack , is decoupled from the appliance housing by means of at least one and the same antivibration element , and a vibration gap is realized between the appliance housing and the handle housing , wherein the antivibration element at least partly bridges the vibration gap between the handle housing and the appliance housing , characterized in that the handle housing has a rear handle that is distal from the work tool , and a front handle that is proximal to the work tool .
A domestic refrigerator , comprising a case including a heat-insulating layer and defining at least one storage space and comprising inner wall and outer wall that are closely attached to the inner side and the outer side of said heat-insulating layer respectively, wherein the refrigerator comprises a door for closing or opening at least a portion of said storage space selectively, said door comprising a heat-insulating layer , an ice-making machine and a water delivery path for supplying water to said ice-making machine , wherein said water delivery path comprises a pipe connector for connecting to an outer water source configured as main-water tap, and several water delivery pipes connected between said pipe connector and said ice-making machine , wherein the water delivery pipes have a portion that is generally parallel with an outer surface of the wall of the case . characterized in that said water delivery pipes (15a 15b, 15c) are removably received within said heat-insulating layer and extend therethrough, wherein the water delivery pipes extend longitudinally in a wall of the case .
An isolated antagonistic antibody specifically binding PD-1 or an antigen-binding portion thereof, comprising a heavy chain variable region (VH) of SEQ ID NO: 48 and a light chain variable region (VL) of SEQ ID NO: 56.
A communication system comprising a mobile-type radio relay apparatus that is disposed movably by flying in an upper airspace, forms a plurality of cells from an antenna at a predetermined altitude toward the ground or the sea, and performs a radio communication with a terminal apparatus located in each of the plurality of cells, the communication system comprising: an estimation section for estimating a Doppler shift in a radio communication of a service link between the terminal apparatus located in the cell and the radio relay apparatus ; and a correction section for correcting a frequency of the radio communication based on an estimation result of the Doppler shift, characterized in that the estimation section is configured to estimate a shape of the cell based on map information and an antenna directivity pattern of the radio relay apparatus , and to estimate the Doppler shift of the service link with respect to a geometric center point in the estimated shape of the cell, and wherein the correction section is configured to correct the frequency of the radio communication in the service link between the terminal apparatus located in the cell and the radio relay apparatus , based on the estimation result of the Doppler shift of the service link, the Doppler shift being estimated with respect to the geometric center point in the estimated shape of the cell. an estimation section for estimating a Doppler shift in a radio communication of a service link between the terminal apparatus located in the cell and the radio relay apparatus ; and a correction section for correcting a frequency of the radio communication based on an estimation result of the Doppler shift, characterized in that the estimation section is configured to estimate a shape of the cell based on map information and an antenna directivity pattern of the radio relay apparatus , and to estimate the Doppler shift of the service link with respect to a geometric center point in the estimated shape of the cell, and wherein the correction section is configured to correct the frequency of the radio communication in the service link between the terminal apparatus located in the cell and the radio relay apparatus , based on the estimation result of the Doppler shift of the service link, the Doppler shift being estimated with respect to the geometric center point in the estimated shape of the cell.
A buckling pin actuated valve, comprising: a valve body having an inlet and an outlet ; a valve seat at the valve body inlet; a valve plug configured to sealingly engage with the valve seat ; a pin cage attached to the valve body and configured to mount a buckling pin , the pin cage including at least one post , an upper pin mounting plate and a lower pin mounting plate , wherein the at least one post joins together the upper pin mounting plate and the lower pin mounting plate; a buckling pin mounted in the pin cage ; and a shaft configured to transfer forces from the valve plug to the buckling pin ; characterized in that : the pin cage is made from a single piece of material. a valve body having an inlet and an outlet ; a valve seat at the valve body inlet; a valve plug configured to sealingly engage with the valve seat ; a pin cage attached to the valve body and configured to mount a buckling pin , the pin cage including at least one post , an upper pin mounting plate and a lower pin mounting plate , wherein the at least one post joins together the upper pin mounting plate and the lower pin mounting plate; a buckling pin mounted in the pin cage ; and a shaft configured to transfer forces from the valve plug to the buckling pin ; characterized in that : the pin cage is made from a single piece of material.
A device for ascertaining and/or monitoring at least one prespecified fill level of a medium in a container at least with a sensor unit and a electronic unit which can be operated using a dynamic electrical signal, said electronic unit comprising at least - a limiting unit which is configured to limit an electric current or an electric voltage in at least one partial area of the electronic unit to a value which can be prespecified, - a switching unit which is configured to control a process switching element , in particular a relay, with at least a first and a second switching state using at least one electrical control signal, and - a signal conversion unit , said signal conversion unit being configured to convert a dynamic electrical input signal to a static electrical output signal, wherein the signal conversion unit is furthermore configured to mask out an unwanted static signal component of the dynamic electrical input signal, if present, which has been caused by a malfunction or fault of at least one component of the electronic unit , and wherein the signal conversion unit is arranged in such a way that the static output signal flows through at least one component of the switching unit , wherein the electronic unit is configured to - apply an activation signal to the sensor unit and receive a receive signal from the sensor unit , - use the receive signal to ascertain and/or monitor whether the prespecified fill level has been reached and - generate the at least one control signal depending on whether or not the prespecified fill level has been reached. - a limiting unit which is configured to limit an electric current or an electric voltage in at least one partial area of the electronic unit to a value which can be prespecified, - a switching unit which is configured to control a process switching element , in particular a relay, with at least a first and a second switching state using at least one electrical control signal, and - a signal conversion unit , said signal conversion unit being configured to convert a dynamic electrical input signal to a static electrical output signal, wherein the signal conversion unit is furthermore configured to mask out an unwanted static signal component of the dynamic electrical input signal, if present, which has been caused by a malfunction or fault of at least one component of the electronic unit , and wherein the signal conversion unit is arranged in such a way that the static output signal flows through at least one component of the switching unit , wherein the electronic unit is configured to - apply an activation signal to the sensor unit and receive a receive signal from the sensor unit , - use the receive signal to ascertain and/or monitor whether the prespecified fill level has been reached and - generate the at least one control signal depending on whether or not the prespecified fill level has been reached.
An abrasive belt machine comprising: a support housing having a pivoting arm that supports an abrasive belt rotatably coupled to a drive motor ; a guard door coupled to the support housing proximate the abrasive belt , the guard door including a guard door sensor ; an exhaust vacuum coupled to the support housing proximate the abrasive belt , the exhaust vacuum including a vacuum/air flow sensor ; a safety controller operatively coupled with the drive motor ; an E-stop operatively coupled to the safety controller ; a foot pedal switch operatively coupled to the drive motor ; and a 480 volt alternating current 3 phase electrical power supply electrically coupled to the drive motor . a support housing having a pivoting arm that supports an abrasive belt rotatably coupled to a drive motor ; a guard door coupled to the support housing proximate the abrasive belt , the guard door including a guard door sensor ; an exhaust vacuum coupled to the support housing proximate the abrasive belt , the exhaust vacuum including a vacuum/air flow sensor ; a safety controller operatively coupled with the drive motor ; an E-stop operatively coupled to the safety controller ; a foot pedal switch operatively coupled to the drive motor ; and a 480 volt alternating current 3 phase electrical power supply electrically coupled to the drive motor .
A method carried out on a host computer system by a virtualization layer that manages sharing of physical CPUs of the host computer system between a plurality of virtual machines each having a plurality of virtual CPUs , the method comprising: determining a demanded number of virtual CPUs of a particular virtual machine , based on a demand of the virtual machine and a current system load of the host computer system ; determining an entitled number of virtual CPUs to which the virtual machine is entitled; determining a target number of virtual CPUs for the virtual machine as a lesser of the demanded number of virtual CPUs and the entitled number of virtual CPUs ; notifying the virtual machine of the target number of virtual CPUs , following which, when the notified target number is less than a current number of executing virtual CPUs, one of the virtual CPUs of the virtual machine executes a halt instruction causing the virtual CPU to halt work; and detecting that the virtual CPU is executing the halt instruction, and responsive thereto, deactivating the virtual CPU from executing in the virtual machine by descheduling the virtual CPU from executing on one or more physical CPUs of the host computer system . determining a demanded number of virtual CPUs of a particular virtual machine , based on a demand of the virtual machine and a current system load of the host computer system ; determining an entitled number of virtual CPUs to which the virtual machine is entitled; determining a target number of virtual CPUs for the virtual machine as a lesser of the demanded number of virtual CPUs and the entitled number of virtual CPUs ; notifying the virtual machine of the target number of virtual CPUs , following which, when the notified target number is less than a current number of executing virtual CPUs, one of the virtual CPUs of the virtual machine executes a halt instruction causing the virtual CPU to halt work; and detecting that the virtual CPU is executing the halt instruction, and responsive thereto, deactivating the virtual CPU from executing in the virtual machine by descheduling the virtual CPU from executing on one or more physical CPUs of the host computer system .
A process for preparing a component by using additive manufacturing methods, characterized in that the component has diamond particles embedded in a silicon carbide matrix, characterized in that said process comprises a step in which a first layer of at least one first material based on silicon carbide is deposited, and another step in which a second layer of at least one second material based on silicon carbide is deposited, wherein at least one of said materials based on silicon carbide includes diamond particles, wherein the diamond particles are diamond particles selected from the group consisting of nanodiamond particles, microdiamond particles, and mixtures thereof, wherein said nanodiamond particles have a particle size of from 40 to 160 nm, and said microdiamond particles have a particle size of from 3 to 300 μm, respectively determined by laser diffractometry, characterized in that said at least first and/or said at least second material are deposited in the form of a slip.
Method for assembling a radiator grille having a frame and a grille structure arranged in the frame , whereby at least one grille-like structure module is connected to a predetermined region of the grille structure and/or to a predetermined region of the frame , and whereby the grille structure in the installed state has an inner side facing an engine compartment, characterised in that a plurality of application elements are assembled to form at least one grille-like structure module and the at least one structure module is placed on the inner side and the application elements are pushed into corresponding grille cells and/or intermediate spaces in the grille structure , so that in the assembled state part-surfaces of the at least one structure module are visible on an outer side of the grille structure and emphasise the grille structure or regions of the grille structure and produce desired patterns or desired optical effects on the radiator grille .
Wound dressing comprising a Bronsted acid and a pH-sensitive polymer, characterized in that the Bronsted acid is embedded in a matrix composed of the pH-sensitive polymer or is encased in the pH-sensitive polymer, wherein the Bronsted acid is a substance selected from the group comprising acetic acid, citric acid, lactic acid, glyceric acid, gluconic acid, benzoic acid, aconitic acid, glutaric acid, tartaric acid, phosphoric acid, malic acid, succinic acid and glutamic acid and wherein the pH-sensitive polymer is a methacrylic acid-methyl methacrylate copolymer. the Bronsted acid is embedded in a matrix composed of the pH-sensitive polymer or is encased in the pH-sensitive polymer, wherein the Bronsted acid is a substance selected from the group comprising acetic acid, citric acid, lactic acid, glyceric acid, gluconic acid, benzoic acid, aconitic acid, glutaric acid, tartaric acid, phosphoric acid, malic acid, succinic acid and glutamic acid and wherein the pH-sensitive polymer is a methacrylic acid-methyl methacrylate copolymer.
A fixing band for a battery module , comprising a first end portion , a connecting section and a second end portion which are arranged successively in an extending direction (m) of the fixing band , characterized in that the first end portion includes a body and engaging grooves which protrude in a thickness direction (h) of the body , the engaging grooves are integral with the body , each of the engaging grooves comprises a groove wall, the groove wall of each of the engaging grooves is separated from the body of the first end portion in a width direction (d) of the fixing band , the second end portion has engaging protrusions which are shaped to match the engaging grooves , and the first end portion and the second end portion are laminated in the thickness direction (h) and are engaged with each other by the groove walls of the engaging grooves and the engaging protrusions , so that the fixing band is configured to enclose an annular accommodation space .
A passenger protection device for a front passenger seat , the passenger protection device comprising: an upper airbag configured to inflate and deploy at a time of a frontal collision of a vehicle ; and a lower airbag that is provided separately from the upper airbag and installed at a front end of a vehicle cabin below the windshield in a vehicle height direction, the lower airbag being configured to inflate and deploy at the time of the frontal collision so as to be supported by a dashboard including an instrument panel from a front side of the vehicle; the passenger protection device being characterized in that the upper airbag is installed in a front header provided at a front end of a roof of the vehicle; the upper airbag is configured so as to be supported by a windshield from the front side of the vehicle when the upper airbag inflates and deploys at the time of the frontal collision of the vehicle; and the upper airbag is configured so that, when seen from the vehicle lateral side in the inflated and deployed state, the upper airbag has a substantially triangular shape of which a height dimension in the vehicle height direction decreases toward the front side of the vehicle. an upper airbag configured to inflate and deploy at a time of a frontal collision of a vehicle ; and a lower airbag that is provided separately from the upper airbag and installed at a front end of a vehicle cabin below the windshield in a vehicle height direction, the lower airbag being configured to inflate and deploy at the time of the frontal collision so as to be supported by a dashboard including an instrument panel from a front side of the vehicle; the passenger protection device being characterized in that the upper airbag is installed in a front header provided at a front end of a roof of the vehicle; the upper airbag is configured so as to be supported by a windshield from the front side of the vehicle when the upper airbag inflates and deploys at the time of the frontal collision of the vehicle; and the upper airbag is configured so that, when seen from the vehicle lateral side in the inflated and deployed state, the upper airbag has a substantially triangular shape of which a height dimension in the vehicle height direction decreases toward the front side of the vehicle.
A method for a computing environment, characterized by the method comprising: determining in the computing environment for a block size a more efficient memory type by measuring or calculating whether it is more efficient to use a cache or store directly to a storage by means of using one or more decisive factors from a group of decisive factors, the group comprising a time it takes to read a block having the block size, a time it takes to write the block, a time it takes to read the block and write the block, an amount of use of processor resources for reading the block, an amount of use of processor resources for writing the block, and an amount of use of processor resources for reading and writing the block; associating the block size with the determined more efficient memory type; and using , in response to a block size of a data stream corresponding to the block size for which the determining and associating have been performed, the determined more efficient memory type for the data stream. determining in the computing environment for a block size a more efficient memory type by measuring or calculating whether it is more efficient to use a cache or store directly to a storage by means of using one or more decisive factors from a group of decisive factors, the group comprising a time it takes to read a block having the block size, a time it takes to write the block, a time it takes to read the block and write the block, an amount of use of processor resources for reading the block, an amount of use of processor resources for writing the block, and an amount of use of processor resources for reading and writing the block; associating the block size with the determined more efficient memory type; and using , in response to a block size of a data stream corresponding to the block size for which the determining and associating have been performed, the determined more efficient memory type for the data stream.
A line dispensing device comprising: a housing defining an interior cavity and an external cavity ; a rotatable shaft rotatably supported by the housing and defining a rotational axis , wherein one end of the rotatable shaft is cantilevered within the external cavity; a line drum disposed about the rotational axis and configured to extend and retract a line from the housing; a transmission extending between the line drum and the rotatable shaft so that rotation of the line drum drives corresponding rotation of the rotatable shaft; a retraction assembly disposed about the rotational axis and configured to generate a retraction force and retract the line from the housing; and a braking assembly disposed about the rotational axis and configured to generate a braking force on the rotatable shaft and during extension of the line from the housing, the braking assembly at least partially disposed within the external cavity, wherein the braking assembly comprises: a stator assembly coupled to the housing; and a rotor assembly coupled to the cantilevered portion of the rotatable shaft and rotatable around the rotational axis. a housing defining an interior cavity and an external cavity ; a rotatable shaft rotatably supported by the housing and defining a rotational axis , wherein one end of the rotatable shaft is cantilevered within the external cavity; a line drum disposed about the rotational axis and configured to extend and retract a line from the housing; a transmission extending between the line drum and the rotatable shaft so that rotation of the line drum drives corresponding rotation of the rotatable shaft; a retraction assembly disposed about the rotational axis and configured to generate a retraction force and retract the line from the housing; and a braking assembly disposed about the rotational axis and configured to generate a braking force on the rotatable shaft and during extension of the line from the housing, the braking assembly at least partially disposed within the external cavity, wherein the braking assembly comprises: a stator assembly coupled to the housing; and a rotor assembly coupled to the cantilevered portion of the rotatable shaft and rotatable around the rotational axis. a stator assembly coupled to the housing; and a rotor assembly coupled to the cantilevered portion of the rotatable shaft and rotatable around the rotational axis.