mhurhangee/patent-ind-claim-en huggingface dataset:
A mid-infrared, MIR, imaging apparatus comprising: a tunable MIR laser configured to generate a linearly polarized light beam ; a specimen stage adapted to carry a specimen to be scanned, said specimen stage configured to move said specimen in a first direction ; an optical assembly configured to focus said light beam to a point on said specimen , said optical assembly comprises a scanning assembly having a focusing lens configured to focus said light beam to a point on said specimen and a mirror , wherein said scanning assembly is configured to move in a second direction relative to said specimen stage such that said focusing lens maintains a fixed distance between said focusing lens and a plane of said specimen stage carrying said specimen , said first direction being different from said second direction ; a light detector configured to measure an intensity of light leaving said point on said specimen ; a controller configured to form a MIR image from said intensity of light; and a reference stage having a reference target , the reference stage positioned such that said scanning assembly can be positioned over said reference target at various locations along the second direction in response to a command from said controller ; wherein the apparatus comprises a linear polarization filter to perform measurements of light reflected from the specimen with different combinations of diffuse and specular reflected light intensities. a tunable MIR laser configured to generate a linearly polarized light beam ; a specimen stage adapted to carry a specimen to be scanned, said specimen stage configured to move said specimen in a first direction ; an optical assembly configured to focus said light beam to a point on said specimen , said optical assembly comprises a scanning assembly having a focusing lens configured to focus said light beam to a point on said specimen and a mirror , wherein said scanning assembly is configured to move in a second direction relative to said specimen stage such that said focusing lens maintains a fixed distance between said focusing lens and a plane of said specimen stage carrying said specimen , said first direction being different from said second direction ; a light detector configured to measure an intensity of light leaving said point on said specimen ; a controller configured to form a MIR image from said intensity of light; and a reference stage having a reference target , the reference stage positioned such that said scanning assembly can be positioned over said reference target at various locations along the second direction in response to a command from said controller ; wherein the apparatus comprises a linear polarization filter to perform measurements of light reflected from the specimen with different combinations of diffuse and specular reflected light intensities.
A three-dimensional printer comprising: a projector including projection lens module including a laterally extending flange having an upward-facing flange surface ; an adaptive support apparatus having a downward-facing surface in facing relation with the upward-facing flange surface ; a spacer ring clamped between the upward-facing flange surface and the downward-facing surface of the adaptive support apparatus ; a resin support apparatus configured to contain resin and including: a transparent sheet that defines a lower bound for the resin proximate to a build plane within the resin; and a downward-facing surface; and a plurality of vertical struts that couple an upward-facing surface of the adaptive support apparatus to the downward-facing surface of the resin support apparatus ; wherein the projector includes an upper housing that receives a lower portion of the projection lens module, the adaptive support apparatus is coupled to the upper housing . a projector including projection lens module including a laterally extending flange having an upward-facing flange surface ; an adaptive support apparatus having a downward-facing surface in facing relation with the upward-facing flange surface ; a spacer ring clamped between the upward-facing flange surface and the downward-facing surface of the adaptive support apparatus ; a resin support apparatus configured to contain resin and including: a transparent sheet that defines a lower bound for the resin proximate to a build plane within the resin; and a downward-facing surface; and a transparent sheet that defines a lower bound for the resin proximate to a build plane within the resin; and a downward-facing surface; and a plurality of vertical struts that couple an upward-facing surface of the adaptive support apparatus to the downward-facing surface of the resin support apparatus ; wherein the projector includes an upper housing that receives a lower portion of the projection lens module, the adaptive support apparatus is coupled to the upper housing .
A table top washing machine, comprising: (a) a tub for accommodating articles to be cleaned; (b) means for circulating water within the tub; (c) a waste water drain comprising a drain port for draining water from the tub and a fitting for connecting a waste line to said drain port; wherein said waste water drain comprises an angled connector having a first leg connected to the drain port, and a second leg comprising the fitting , characterized in that said first leg is rotatably connected to the drain port, and wherein said waste water drain further comprises means for limiting rotation of the first leg such that orienting the second leg to point in an upward direction is prevented, so that the second leg can only be directed downwardly or at maximum horizontally in order to prevent a back flow of water within the waste line. (a) a tub for accommodating articles to be cleaned; (b) means for circulating water within the tub; (c) a waste water drain comprising a drain port for draining water from the tub and a fitting for connecting a waste line to said drain port; wherein said waste water drain comprises an angled connector having a first leg connected to the drain port, and a second leg comprising the fitting , characterized in that said first leg is rotatably connected to the drain port, and wherein said waste water drain further comprises means for limiting rotation of the first leg such that orienting the second leg to point in an upward direction is prevented, so that the second leg can only be directed downwardly or at maximum horizontally in order to prevent a back flow of water within the waste line.
A battery pack , the battery pack comprising: an upper housing portion including a first air vent ; a lower support frame configured to receive a plurality of battery cells and to space apart the battery cells from one another, the lower support frame including a second air vent positioned at a first end of the lower support frame , a third air vent positioned at a second end of the lower support frame , and an air passage positioned between the second air vent and the third air vent , wherein the first air vent is positioned approximately or substantially directly above the third air vent , the third air vent is positioned on the opposite side of the battery pack to the first air vent , and the third air vent is at least partially isolated from the first air vent by a heat sink . an upper housing portion including a first air vent ; a lower support frame configured to receive a plurality of battery cells and to space apart the battery cells from one another, the lower support frame including a second air vent positioned at a first end of the lower support frame , a third air vent positioned at a second end of the lower support frame , and an air passage positioned between the second air vent and the third air vent , wherein the first air vent is positioned approximately or substantially directly above the third air vent , the third air vent is positioned on the opposite side of the battery pack to the first air vent , and the third air vent is at least partially isolated from the first air vent by a heat sink . a second air vent positioned at a first end of the lower support frame , a third air vent positioned at a second end of the lower support frame , and an air passage positioned between the second air vent and the third air vent , wherein the first air vent is positioned approximately or substantially directly above the third air vent , the third air vent is positioned on the opposite side of the battery pack to the first air vent , and the third air vent is at least partially isolated from the first air vent by a heat sink .
A compute device for control plane separation in a network interface controller, NIC, the compute device comprising: a compute engine configured to manage a plurality of resources of the compute device; a network interface controller, NIC, configured to provide access to a physical function of the NIC , wherein at least one of the plurality of resources is configured to access the physical function , wherein the NIC is configured to establish a data plane separate from a control plane within the NIC, and wherein the control plane comprises a trusted control path and an untrusted control path ; and one or more memory devices having stored therein a plurality of instructions that, when executed by the compute engine , causes the at least one of the plurality of resources to transmit control plane commands to the physical function via one of the trusted control path or the untrusted control path based on a trust level associated with the physical function , wherein the trust level indicates whether the physical function is an untrusted physical function with restricted access to hardware of the NIC, and wherein control plane commands towards trusted physical functions are transmitted via the trusted control path , wherein control plane commands towards untrusted physical functions are transmitted via the untrusted control path to an untrusted control path controller and are sanitized by the untrusted control path controller . a compute engine configured to manage a plurality of resources of the compute device; a network interface controller, NIC, configured to provide access to a physical function of the NIC , wherein at least one of the plurality of resources is configured to access the physical function , wherein the NIC is configured to establish a data plane separate from a control plane within the NIC, and wherein the control plane comprises a trusted control path and an untrusted control path ; and one or more memory devices having stored therein a plurality of instructions that, when executed by the compute engine , causes the at least one of the plurality of resources to transmit control plane commands to the physical function via one of the trusted control path or the untrusted control path based on a trust level associated with the physical function , wherein the trust level indicates whether the physical function is an untrusted physical function with restricted access to hardware of the NIC, and wherein control plane commands towards trusted physical functions are transmitted via the trusted control path , wherein control plane commands towards untrusted physical functions are transmitted via the untrusted control path to an untrusted control path controller and are sanitized by the untrusted control path controller .
A terminal comprising: an antenna incorporated into the terminal and configured to emit electronic waves; a metal bezel disposed along an edge of the terminal; and a beam forming auxiliary unit separately disposed by a predetermined distance from the antenna and configured to assist in forming beams of the electronic waves emitted from the antenna , wherein the beam forming auxiliary unit , incorporated into the terminal, comprises a film layer configured to compensate a phase of the electronic waves emitted through the antenna and a pattern layer and is disposed between the metal bezel and the antenna , and wherein the pattern layer is configured to reduce an advancing speed of the electronic waves collided with the pattern layer such that the electronic waves emitted from the antenna pass through the metal bezel . an antenna incorporated into the terminal and configured to emit electronic waves; a metal bezel disposed along an edge of the terminal; and a beam forming auxiliary unit separately disposed by a predetermined distance from the antenna and configured to assist in forming beams of the electronic waves emitted from the antenna , wherein the beam forming auxiliary unit , incorporated into the terminal, comprises a film layer configured to compensate a phase of the electronic waves emitted through the antenna and a pattern layer and is disposed between the metal bezel and the antenna , and wherein the pattern layer is configured to reduce an advancing speed of the electronic waves collided with the pattern layer such that the electronic waves emitted from the antenna pass through the metal bezel .
A control system for a state of a quantum harmonic oscillator, comprising: - a quantum harmonic oscillator configured to carry encoded information in a Schrödinger's cat type state of the oscillator, - a stabilisation device for a predetermined parity of a number of bosons of the state, which device is configured to use first and second frequency combs, the first and second frequency combs each including at least as many rays as a mean number of bosons in the Schrödinger's cat type state of the oscillator, and - a multi-photon dissipation device arranged to remove at least one pair of bosons simultaneously from the oscillator, the multi-photon dissipation device being arranged such that it is activated only over activation periods between two successive time peaks of the first and second frequency combs, the activation period having a duration which is greater than the inverse of the product of the mean number of bosons in the Schrödinger's cat type state of the oscillator and the inverse of the characteristic time separating the removal of at least one pair of bosons simultaneously from the oscillator by multi-photon dissipation, a duration separating two successive activation periods being less than a characteristic loss time of a boson in the harmonic oscillator. - a quantum harmonic oscillator configured to carry encoded information in a Schrödinger's cat type state of the oscillator, - a stabilisation device for a predetermined parity of a number of bosons of the state, which device is configured to use first and second frequency combs, the first and second frequency combs each including at least as many rays as a mean number of bosons in the Schrödinger's cat type state of the oscillator, and - a multi-photon dissipation device arranged to remove at least one pair of bosons simultaneously from the oscillator, the multi-photon dissipation device being arranged such that it is activated only over activation periods between two successive time peaks of the first and second frequency combs, the activation period having a duration which is greater than the inverse of the product of the mean number of bosons in the Schrödinger's cat type state of the oscillator and the inverse of the characteristic time separating the removal of at least one pair of bosons simultaneously from the oscillator by multi-photon dissipation, a duration separating two successive activation periods being less than a characteristic loss time of a boson in the harmonic oscillator.
A receiving device , comprising: an antenna device , configured to receive a received signal; a filter circuit , configured to separate an in-band signal and an out-band signal from the received signal, wherein the in-band signal passes through the filter and the out-band signal is reflected by the filter, or wherein the out-band signal passes through the filter and the in-band signal is reflected by the filter; a transceiver ; an adjustable attenuator configured to adjust an attenuation value to attenuate the in-band signal and transmit the adjusted in-band signal to the transceiver ; a circulator , coupled to the antenna device and the filter circuit , wherein the circulator receives the received signal from the antenna device via a first port and transmits the received signal to the filter circuit via a second port, and wherein the circulator receives the reflected signal from the filter circuit via the second port and transmits the reflected signal via a third port; and a processor , coupled to the adjustable attenuator and the transceiver , and according to information related to the out-band signal and information related to the in-band signal which has been processed by the adjustable attenuator and the transceiver , determining how to adjust the attenuation value corresponding to the in-band signal. an antenna device , configured to receive a received signal; a filter circuit , configured to separate an in-band signal and an out-band signal from the received signal, wherein the in-band signal passes through the filter and the out-band signal is reflected by the filter, or wherein the out-band signal passes through the filter and the in-band signal is reflected by the filter; a transceiver ; an adjustable attenuator configured to adjust an attenuation value to attenuate the in-band signal and transmit the adjusted in-band signal to the transceiver ; a circulator , coupled to the antenna device and the filter circuit , wherein the circulator receives the received signal from the antenna device via a first port and transmits the received signal to the filter circuit via a second port, and wherein the circulator receives the reflected signal from the filter circuit via the second port and transmits the reflected signal via a third port; and a processor , coupled to the adjustable attenuator and the transceiver , and according to information related to the out-band signal and information related to the in-band signal which has been processed by the adjustable attenuator and the transceiver , determining how to adjust the attenuation value corresponding to the in-band signal.
A valve driver system forming part of a fieldbus controller for driving a plurality of valves of a valve manifold , the valve driver system comprising: a plurality of valve drivers , wherein each valve driver is configured to drive a zone of one or more valves of the manifold ; and, a power board internal to the fieldbus controller that separately powers the respective valve drivers such that the valve drivers are powered separately with a separate power source that can individually power the valve driver ; further including a power connector connected to the power board that includes separate V+ (pluses) pins for the respective valve drivers and a common V- (minus) ground pin; the power connector being configured to allow for separate power inputs via the respective V+ (pluses) pins and V- (minus) pin so that each valve driver receives its own power, thereby enabling the valve drivers to be powered individually. a plurality of valve drivers , wherein each valve driver is configured to drive a zone of one or more valves of the manifold ; and, a power board internal to the fieldbus controller that separately powers the respective valve drivers such that the valve drivers are powered separately with a separate power source that can individually power the valve driver ; further including a power connector connected to the power board that includes separate V+ (pluses) pins for the respective valve drivers and a common V- (minus) ground pin; the power connector being configured to allow for separate power inputs via the respective V+ (pluses) pins and V- (minus) pin so that each valve driver receives its own power, thereby enabling the valve drivers to be powered individually.
A printer cartridge , comprising: a memory device ; and characterized by a transform wrapper stored on the memory device , the transform wrapper to dynamically build a transform map for a printer based on metadata stored at the memory device wherein the transform map is a channel map, and the channel map includes a mapping for one of a plurality of colors, wherein the metadata is to indicate at least one of a type of depositing material, transform map , print media and printer; wherein the metadata includes a recipe ; the recipe including instructions to build a channel map based on at least one of a neutral axis, a set of seed nodes and a delta table included in primitive data stored by the printer cartridge, wherein: the neutral axis relates to a line extending from an origin of a three-dimensional color table to a node of the color table farthest from the origin, the set of seed nodes correspond to nodes of a compressed color table, and the delta table is to indicate a difference between an interpolated color table node and a corresponding actual color table. a memory device ; and characterized by a transform wrapper stored on the memory device , the transform wrapper to dynamically build a transform map for a printer based on metadata stored at the memory device wherein the transform map is a channel map, and the channel map includes a mapping for one of a plurality of colors, wherein the metadata is to indicate at least one of a type of depositing material, transform map , print media and printer; wherein the metadata includes a recipe ; the recipe including instructions to build a channel map based on at least one of a neutral axis, a set of seed nodes and a delta table included in primitive data stored by the printer cartridge, wherein: the neutral axis relates to a line extending from an origin of a three-dimensional color table to a node of the color table farthest from the origin, the set of seed nodes correspond to nodes of a compressed color table, and the delta table is to indicate a difference between an interpolated color table node and a corresponding actual color table. the neutral axis relates to a line extending from an origin of a three-dimensional color table to a node of the color table farthest from the origin, the set of seed nodes correspond to nodes of a compressed color table, and the delta table is to indicate a difference between an interpolated color table node and a corresponding actual color table.
Method for slicing a food slab into food slices and/or for portioning food slices by means of a slicing device , which has a cutting blade with which the food slices are separated from the food slab , wherein an oscillation sensor is provided, which receives oscillations that are produced when the cutting blade contacts the food slab, when the cutting blade enters the food slab and/or when the food slab is cut, and on the basis of the measurement generates a signal , characterized in that the signal is used to set speed of rotation of the cutting blade and/or an orbital speed of the cutting blade and/or to set the positioning process.
An apparatus comprising: a battery stack including a plurality of alternating anodes and cathodes ; wherein each of the anodes is positioned between first and second separators, wherein the first and second separators are sealed around a perimeter of the first and second separators by an edge seal to form a separator bag including a sealed edge extending along a top edge of the respective anode, and wherein a tab of the anode extends out from between the first and second separators at a top portion of the separator bag; and an edge tape extending across the top portion of the separator bag including the sealed edge extending along the top edge of the respective anode of the separator bag and covering over a portion of the tab . a battery stack including a plurality of alternating anodes and cathodes ; wherein each of the anodes is positioned between first and second separators, wherein the first and second separators are sealed around a perimeter of the first and second separators by an edge seal to form a separator bag including a sealed edge extending along a top edge of the respective anode, and wherein a tab of the anode extends out from between the first and second separators at a top portion of the separator bag; and an edge tape extending across the top portion of the separator bag including the sealed edge extending along the top edge of the respective anode of the separator bag and covering over a portion of the tab .