mhurhangee/patent-ind-claim-en huggingface dataset:
A projection ambient lamp, comprising: an interference lens , comprising: an interference sheet comprising a first surface and a second surface opposite to the first surface , the first surface being a rough surface; a reflective film provided on or inside the interference sheet ; wherein the rough surface has a plurality of bumps and grooves, wherein a distance between the top of a highest bump and the bottom of a deepest groove ranges from 15% to 30% of a thickness of the interference sheet ; wherein the projection ambient lamp further comprises: a light source ; and a focusing lens , wherein light emitted from the light source passes through the interference lens and is reflected by the reflective film in the interference lens to form an interference pattern, which is focused by the focusing lens and projected on a medium. an interference lens , comprising: an interference sheet comprising a first surface and a second surface opposite to the first surface , the first surface being a rough surface; a reflective film provided on or inside the interference sheet ; an interference sheet comprising a first surface and a second surface opposite to the first surface , the first surface being a rough surface; a reflective film provided on or inside the interference sheet ; wherein the rough surface has a plurality of bumps and grooves, wherein a distance between the top of a highest bump and the bottom of a deepest groove ranges from 15% to 30% of a thickness of the interference sheet ; wherein the projection ambient lamp further comprises: a light source ; and a focusing lens , wherein light emitted from the light source passes through the interference lens and is reflected by the reflective film in the interference lens to form an interference pattern, which is focused by the focusing lens and projected on a medium. a light source ; and a focusing lens , wherein light emitted from the light source passes through the interference lens and is reflected by the reflective film in the interference lens to form an interference pattern, which is focused by the focusing lens and projected on a medium.
A weighted vest comprising a load-bearing belt ; wherein the belt comprises an elongate belt-connector for receipt of a load from the weighted vest, a stabilising insert at the back of the belt, and a retainer ; wherein the weighted vest comprises a receiver for the belt-connector; characterised in that the belt-connector extends in a direction generally upwards in line with the back of a wearer; wherein the belt-connector comprises a substantially rigid bar; and wherein the belt-connector is variably adjustable, constantly and automatically adjusting for lateral movement in order to support and spread the effects of the weight carried.
A circuit arrangement for determining impedance of a battery cell , the circuit comprising: a first circuit configured to generate sample values representative of a sine waveform and a cosine waveform at a target frequency and sample rate, with each period of the sine waveform including N sample values and each period of the cosine waveform including N sample values; a second circuit coupled to an output of the first circuit and configured to input a current pulse into the cell in response to the sample values of the cosine waveform, the current pulse having a density being proportional to the amplitude of the sample values of the cosine waveform; a third circuit coupled to the cell and configured to sample voltage levels across the cell resulting from the current being input into the cell, the third circuit is configured to sample voltage levels at a sample rate equal to a sample rate of the cosine waveform; and a fourth circuit coupled to an output of the third circuit and configured to separate each voltage level sampled by the third circuit into real and imaginary components of the impedance of the cell. a first circuit configured to generate sample values representative of a sine waveform and a cosine waveform at a target frequency and sample rate, with each period of the sine waveform including N sample values and each period of the cosine waveform including N sample values; a second circuit coupled to an output of the first circuit and configured to input a current pulse into the cell in response to the sample values of the cosine waveform, the current pulse having a density being proportional to the amplitude of the sample values of the cosine waveform; a third circuit coupled to the cell and configured to sample voltage levels across the cell resulting from the current being input into the cell, the third circuit is configured to sample voltage levels at a sample rate equal to a sample rate of the cosine waveform; and a fourth circuit coupled to an output of the third circuit and configured to separate each voltage level sampled by the third circuit into real and imaginary components of the impedance of the cell.
A clinical analyzer , comprising: a cuvette hopper configured to receive a plurality of cuvettes , a first location proximate the cuvette hopper ; a second location; a chute extending between the first location and the second location, the chute configured to enable cuvettes to slide from the first location to the second location; and a loading assembly including a first gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute , a second gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute , and a space between the first gate and the second gate , wherein a cuvette is receivable in the space; the clinical analyzer further comprising an incubation ring located at the second position, the incubation ring having one or more receptacles , each receptacle configured to receive one cuvette , wherein, when the second gate is in the first, retracted position, it enables a cuvette, when present, to move along the chute (130, slide off the chute and into a receptacle in the incubation ring . a cuvette hopper configured to receive a plurality of cuvettes , a first location proximate the cuvette hopper ; a second location; a chute extending between the first location and the second location, the chute configured to enable cuvettes to slide from the first location to the second location; and a loading assembly including a first gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute , a second gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute , and a space between the first gate and the second gate , wherein a cuvette is receivable in the space; the clinical analyzer further comprising an incubation ring located at the second position, the incubation ring having one or more receptacles , each receptacle configured to receive one cuvette , wherein, when the second gate is in the first, retracted position, it enables a cuvette, when present, to move along the chute (130, slide off the chute and into a receptacle in the incubation ring .
A method comprising: at a user equipment, UE , configured for dual connectivity with a Master evolved Node B, MeNB , and a Secondary evolved Node B, SeNB : receiving downlink traffic packets from at least one of the MeNB and the SeNB as part of a split data radio bearer, DRB, wherein the split DRB includes corresponding radio link control, RLC, functionalities at the MeNB and the SeNB; starting a Packet Data Convergence Protocol, PDCP , timer for reordering downlink traffic packets received out of sequence as part of the split DRB, wherein when the PDCP timer is set to zero, the downlink traffic packets may be delivered to upper layers without additional reordering delay at a PDCP layer due to the PDCP timer; and delivering the downlink traffic packets to upper layers. receiving downlink traffic packets from at least one of the MeNB and the SeNB as part of a split data radio bearer, DRB, wherein the split DRB includes corresponding radio link control, RLC, functionalities at the MeNB and the SeNB; starting a Packet Data Convergence Protocol, PDCP , timer for reordering downlink traffic packets received out of sequence as part of the split DRB, wherein when the PDCP timer is set to zero, the downlink traffic packets may be delivered to upper layers without additional reordering delay at a PDCP layer due to the PDCP timer; and delivering the downlink traffic packets to upper layers.
A method for treating waste water from decontamination of a metal surface in a primary coolant circuit of a nuclear reactor characterized in that the method comprises the following steps: a) an oxidizing agent is introduced into a primary coolant in the primary coolant circuit to form an oxidation solution and the oxidation solution is circulated in the primary coolant circuit to contact the oxidation solution with the metal surface; b) during or after step a), a predetermined amount of the oxidation solution is discharged from the primary coolant circuit into a reduction zone connected to the primary coolant circuit ; c) in the reduction zone , the oxidizing agent is reacted with a reducing agent to form a reaction solution freed of the oxidizing agent; d) the reaction solution is passed over an ion exchange resin to form a desalinated solution; and e) the desalinated solution is returned into the primary coolant and/or stored temporarily and/or disposed of. a) an oxidizing agent is introduced into a primary coolant in the primary coolant circuit to form an oxidation solution and the oxidation solution is circulated in the primary coolant circuit to contact the oxidation solution with the metal surface; b) during or after step a), a predetermined amount of the oxidation solution is discharged from the primary coolant circuit into a reduction zone connected to the primary coolant circuit ; c) in the reduction zone , the oxidizing agent is reacted with a reducing agent to form a reaction solution freed of the oxidizing agent; d) the reaction solution is passed over an ion exchange resin to form a desalinated solution; and e) the desalinated solution is returned into the primary coolant and/or stored temporarily and/or disposed of.
A telescopic pipe buffer structure , comprising an inner tube , an outer tube , a buffer plate , and a guard plate , wherein the inner tube is slidably sleeved into the outer tube , the guard plate is disposed at an end of the inner tube , an accommodating groove is formed between the guard plate and an end surface of the inner tube , the telescopic pipe buffer structure further comprises a guide sleeve fixed to an end surface of the inner tube , the guide sleeve is directly opposite to the buffer plate , and the accommodating groove is located between the guide sleeve and the buffer plate , the buffer plate is disposed on the guard plate and located on a side of the guard plate close to the accommodating groove , an edge of the buffer plate is abutted against an inner wall of the outer tube , so that while the inner tube is inserted into the outer tube , the edge of the buffer plate is scrolled into the accommodating groove ; and while the outer tube is pushed to make the inner tube extend outwardly from the outer tube , the buffer plate keeps slidably abutting against the inner wall of the outer tube to realize a buffer function.
A digital photographing apparatus comprising: an imaging device that generates an image signal by capturing image light; a storage unit that stores a template comprising a background area and a composite area that shows at least a part of an image according to the image signal; an image changing unit that extracts a selected template from the storage unit and changes orientations of the selected template and the image; an image composing unit that composes the image and the template of which orientations are changed; and a display unit that displays the composed image, characterised in that the image changing unit determines orientations to be changed of the template and the image according to a rotation amount of the imaging device with respect to an optical axis of the digital photographing apparatus and an orientation in which an imaging surface of the imaging device faces in relation to the orientation the display unit faces. an imaging device that generates an image signal by capturing image light; a storage unit that stores a template comprising a background area and a composite area that shows at least a part of an image according to the image signal; an image changing unit that extracts a selected template from the storage unit and changes orientations of the selected template and the image; an image composing unit that composes the image and the template of which orientations are changed; and a display unit that displays the composed image, characterised in that the image changing unit determines orientations to be changed of the template and the image according to a rotation amount of the imaging device with respect to an optical axis of the digital photographing apparatus and an orientation in which an imaging surface of the imaging device faces in relation to the orientation the display unit faces.
An aerosol-type invertible valve mechanism having a valve acting section that shifts, based on an operation mode setting operation, from a previous closed state to an open state to inject contents in a container body to an outer space region and a contents passage section in an invertible use mode, having an upright and an inverted mode, that communicates with the valve acting section , wherein: the contents passage section includes: an upright inflow passage (A) of the contents; an inverted inflow passage (B) of the contents; a shared invertible passage (C) that is formed at the downstream side from a common outflow hole for the upright inflow passage (A) and the inverted inflow passage (B) and that communicates with the valve acting section ; and a moving valve that is provided at the common outflow hole side of the inverted inflow passage (B) and that allows, by the falling action by its own weight in the respective upright and inverted modes, the inverted inflow passage (B) in the inverted mode to communicate with the shared invertible passage (C), the moving valve has a lower end that is provided at an upper position on an extended straight line at the contents outflow side of the upright inflow passage (A) that is separated from the upper end of the common outflow hole by a distance, characterized in that the distance is of at least 3.5mm. an upright inflow passage (A) of the contents; an inverted inflow passage (B) of the contents; a shared invertible passage (C) that is formed at the downstream side from a common outflow hole for the upright inflow passage (A) and the inverted inflow passage (B) and that communicates with the valve acting section ; and a moving valve that is provided at the common outflow hole side of the inverted inflow passage (B) and that allows, by the falling action by its own weight in the respective upright and inverted modes, the inverted inflow passage (B) in the inverted mode to communicate with the shared invertible passage (C), the moving valve has a lower end that is provided at an upper position on an extended straight line at the contents outflow side of the upright inflow passage (A) that is separated from the upper end of the common outflow hole by a distance, characterized in that the distance is of at least 3.5mm.
A light-concentrating device , comprising: a light-concentrating plate and a controller , wherein the light-concentrating plate comprises a plurality of light adjusting units arranged in an array, and each of the plurality of light adjusting units comprises: a house , wherein the house comprises a first wall , a second wall opposite to the first wall , and a side wall connected to both the first wall and the second wall , and the house allows light to pass through at least from the first wall to the second wall ; a first light-transmissive liquid filled in the house , wherein the first light-transmissive liquid is a conductive liquid; a first electrode layer located on the second wall , wherein the first electrode layer allows the light to pass through; and an adjustment electrode located on the side wall of the house , wherein the adjustment electrode is insulated from the first electrode layer ; wherein the controller is connected to the adjustment electrode and the first electrode layer and configured to apply a voltage between the adjustment electrode and the first electrode layer ; wherein the controller is further configured to apply different voltages between the adjustment electrodes and the first electrode layers of the plurality of light adjusting units , so that the light passing through the plurality of light adjusting units is converged together; wherein the second wall is an insulating layer , characterised in that the first electrode layer is located on a side of the insulating layer facing away from the first wall . a house , wherein the house comprises a first wall , a second wall opposite to the first wall , and a side wall connected to both the first wall and the second wall , and the house allows light to pass through at least from the first wall to the second wall ; a first light-transmissive liquid filled in the house , wherein the first light-transmissive liquid is a conductive liquid; a first electrode layer located on the second wall , wherein the first electrode layer allows the light to pass through; and an adjustment electrode located on the side wall of the house , wherein the adjustment electrode is insulated from the first electrode layer ; wherein the controller is connected to the adjustment electrode and the first electrode layer and configured to apply a voltage between the adjustment electrode and the first electrode layer ; wherein the controller is further configured to apply different voltages between the adjustment electrodes and the first electrode layers of the plurality of light adjusting units , so that the light passing through the plurality of light adjusting units is converged together; wherein the second wall is an insulating layer ,
A beacon light and lens system comprising: a base configured to attach the beacon light to a structure ; a light emitting diode assembly comprising at least one light emitting diode secured to the base; a lens comprising optics configured to capture and direct light horizontally from the at least one light emitting diode ; a driver board configured to power the at least one light emitting diode , wherein the lens is mounted on the base and comprises at least one mounting tab configured to mechanically fasten the lens to the base by cooperating with a slot arranged in the base , and wherein the base comprises a curved mounting surface external to the base , wherein the system further comprises a bracket connected to the curved mounting surface and used to arrange the beacon light vertically when the structure has an inclined surface. a base configured to attach the beacon light to a structure ; a light emitting diode assembly comprising at least one light emitting diode secured to the base; a lens comprising optics configured to capture and direct light horizontally from the at least one light emitting diode ; a driver board configured to power the at least one light emitting diode , wherein the lens is mounted on the base and comprises at least one mounting tab configured to mechanically fasten the lens to the base by cooperating with a slot arranged in the base , and wherein the base comprises a curved mounting surface external to the base , wherein the system further comprises a bracket connected to the curved mounting surface and used to arrange the beacon light vertically when the structure has an inclined surface.
A method for sharing information between entities, comprising: receiving first confidential information from a first client device associated with a first entity; sealing the first confidential information within a trusted execution environment; receiving second confidential information from a second client device associated with a second entity; sealing the second confidential information within the trusted execution environment; receiving code from at least one of the first client device and the second client device; sealing the code within the trusted execution environment; and executing the code within the trusted execution environment, the code configured to compute a confidential result based upon the first confidential information and the second confidential information. receiving first confidential information from a first client device associated with a first entity; sealing the first confidential information within a trusted execution environment; receiving second confidential information from a second client device associated with a second entity; sealing the second confidential information within the trusted execution environment; receiving code from at least one of the first client device and the second client device; sealing the code within the trusted execution environment; and executing the code within the trusted execution environment, the code configured to compute a confidential result based upon the first confidential information and the second confidential information.
Plate heat exchanger comprising a plate heat exchanger block which has a plurality of partition walls arranged parallel to one another, which form a plurality of heat exchange passages for fluids to be brought into indirect heat transfer with one another, wherein the heat exchange passages are delimited by side strips , and wherein a heat-conducting element is arranged between adjacent partition walls , and wherein the heat exchange passages each have an inlet for admitting a fluid and an outlet for discharging the fluid, characterized in that a plurality of partition walls and/or a plurality of heat-conducting elements each have a coating made of a thermally insulating material, and in that (a) each heat conducting element forms a plurality of flow channels of the respective heat exchange passage with the two adjacent partition walls , wherein the coating is applied to the respective heat conducting element and to the two adjacent partition walls in such a way that the respective flow channel has a circumferential inner side which is coated with the thermally insulating coating , and/or (b) the partition wall having the coating and/or in that the heat conducting element having the coating has a first section (A1) arranged at the inlet and a second section (A2) connected to the first section (A1), wherein the second section (A2) is further away from the inlet than the first section (A1), and wherein the first section (A1) has the coating , and wherein the second section (A2) does not have a thermally insulating coating. (a) each heat conducting element forms a plurality of flow channels of the respective heat exchange passage with the two adjacent partition walls , wherein the coating is applied to the respective heat conducting element and to the two adjacent partition walls in such a way that the respective flow channel has a circumferential inner side which is coated with the thermally insulating coating , and/or (b) the partition wall having the coating and/or in that the heat conducting element having the coating has a first section (A1) arranged at the inlet and a second section (A2) connected to the first section (A1), wherein the second section (A2) is further away from the inlet than the first section (A1), and wherein the first section (A1) has the coating , and wherein the second section (A2) does not have a thermally insulating coating.