mhurhangee/patent-ind-claim-en huggingface dataset:
A honeycomb structure comprising a tubular honeycomb structure section having porous partition walls with which a plurality of cells extending from one end surface to the other end surface are formed to become through channels of a fluid, and an outer peripheral wall positioned in the outermost periphery; and a pair of electrode sections arranged on a side surface of the honeycomb structure section, wherein the electrical resistivity of the honeycomb structure section is from 1 to 200 Ωcm, each of the pair of electrode sections is formed into a band shape extending in a cell extending direction of the honeycomb structure section, the thickness of each of the electrode sections is from 0.1 to 1 mm, in a cross section perpendicular to the cell extending direction, one electrode section of the pair of electrode sections is disposed on the opposite side to the other electrode section of the pair of electrode sections via the center of the honeycomb structure section, and when voltage is applied between the pair of electrode sections electrical current passes through the honeycomb structure section from one electrode section to the other, the shape of the cells in the cross section perpendicular to the cell extending direction is a hexagonal shape, and in the cross section perpendicular to the cell extending direction and including the electrode sections, when a straight line parallel to a diagonal line connecting two facing vertexes of one cell and passing the center of the honeycomb structure section is a reference line, each of the electrode sections is disposed at a position to intersect with at least one said reference line.
A terminal to be connected with a coated conducting wire , the terminal comprising: a main terminal body and a cylindrical crimp portion integrally formed with a transition portion placed therebetween, the crimp portion being sealed except for a section thereof into which the coated conducting wire is inserted, a surface being formed on at least a part of the transition portion , the surface extending continuously from a sealing portion provided on the transition portion side toward side portions of the main terminal body , and a bottom portion of the transition portion and the surface separating from each other as the bottom portion of the transition portion and the surface approach the side portions of the main terminal portion from the sealing portion ; characterised in that in the side portions of the main terminal body , a notch is formed in at least a part of a section between a connecting portion of the main terminal body with the transition portion and an upper portion of the main terminal body ; wherein the notch is formed continuously from side surfaces of the main terminal body up to an upper surface of the main terminal body and a part of the upper portion of the main terminal body is cut out to form the notch , and thus the notch is formed continuously from the side portions to the upper portion of the main terminal body ; and wherein side portions of the transition portion and the surface gradually rise up from the sealing portion and become continuous with the notch . a main terminal body and a cylindrical crimp portion integrally formed with a transition portion placed therebetween, the crimp portion being sealed except for a section thereof into which the coated conducting wire is inserted, a surface being formed on at least a part of the transition portion , the surface extending continuously from a sealing portion provided on the transition portion side toward side portions of the main terminal body , and a bottom portion of the transition portion and the surface separating from each other as the bottom portion of the transition portion and the surface approach the side portions of the main terminal portion from the sealing portion ; in the side portions of the main terminal body , a notch is formed in at least a part of a section between a connecting portion of the main terminal body with the transition portion and an upper portion of the main terminal body ; wherein the notch is formed continuously from side surfaces of the main terminal body up to an upper surface of the main terminal body and a part of the upper portion of the main terminal body is cut out to form the notch , and thus the notch is formed continuously from the side portions to the upper portion of the main terminal body ; and wherein side portions of the transition portion and the surface gradually rise up from the sealing portion and become continuous with the notch .
An ice making apparatus , comprising - a lower body , - an upper body placed on top of the lower body , - a lower insulating part placed in the lower body , - an upper insulating part placed in the upper body , - an ice mold placed between the upper insulating part and the lower insulating part so as to form at least one ice cell, and having at least one filler opening provided on its upper surface and a discharge opening provided on its lower surface, - a cut-out into which water enters, provided so as to be under the ice mold and inside the lower insulating part , and a channel enabling liquid to pass through, with one end opening to the cut-out via a first opening , and the other end opening to the upper surface of the upper body via a second opening , characterized by a float movable within the channel by buoyancy of water. - a lower body , - an upper body placed on top of the lower body , - a lower insulating part placed in the lower body , - an upper insulating part placed in the upper body , - an ice mold placed between the upper insulating part and the lower insulating part so as to form at least one ice cell, and having at least one filler opening provided on its upper surface and a discharge opening provided on its lower surface, - a cut-out into which water enters, provided so as to be under the ice mold and inside the lower insulating part , and a channel enabling liquid to pass through, with one end opening to the cut-out via a first opening , and the other end opening to the upper surface of the upper body via a second opening , characterized by a float movable within the channel by buoyancy of water.
An axial flux electrical machine comprising: a first flux generating assembly ; a second flux generating assembly ; a shaft having an axis of rotation; and a speed controller , wherein each of the first flux generating assembly and the second flux generating assembly is rotationally located on the shaft in axial juxtaposition to one another, and the first flux generating assembly being axially separated from the second flux generating assembly by a separation distance , characterised in that the speed controller comprises a control plate positioned between the first flux generating assembly and the second flux generating assembly , the control plate being configured to generate a control magnetic field in opposition to a first magnetic field generated by the first flux generating assembly , and to modify a magnetic field generated by either of the first flux generating assembly and the second flux generating assembly so as to control a rotational speed of the electrical machine . a first flux generating assembly ; a second flux generating assembly ; a shaft having an axis of rotation; and a speed controller ,
A turbo-molecular vacuum pump comprising: a body having an inlet flange disposed at a high vacuum side for connecting the turbo-molecular vacuum pump with a chamber to be evacuated, and an outlet port disposed at a low vacuum side for exhausting pumped gases from the turbo-molecular vacuum pump; disposed within the body there is a stator and a rotor arranged to move relative to the stator such that, during use, gas molecules are urged from the inlet flange towards the outlet port, the rotor is coupled to a motor by a drive shaft for driving the rotor in a rotary motion; and bearings for supporting the drive shaft and/or the rotor in relation to the body, wherein a first bearing is coupled to the rotor and disposed on supporting mount at the high vacuum side of the rotor, radial struts extend from the supporting mount and form an integral part of the body; characterized in that the radial struts comprise a hinge portion that can flex to allow relative movement of the inlet flange with respect to the supporting mount, said hinge portion comprising a notch in the strut. a body having an inlet flange disposed at a high vacuum side for connecting the turbo-molecular vacuum pump with a chamber to be evacuated, and an outlet port disposed at a low vacuum side for exhausting pumped gases from the turbo-molecular vacuum pump; disposed within the body there is a stator and a rotor arranged to move relative to the stator such that, during use, gas molecules are urged from the inlet flange towards the outlet port, the rotor is coupled to a motor by a drive shaft for driving the rotor in a rotary motion; and bearings for supporting the drive shaft and/or the rotor in relation to the body, wherein a first bearing is coupled to the rotor and disposed on supporting mount at the high vacuum side of the rotor, radial struts extend from the supporting mount and form an integral part of the body; characterized in that the radial struts comprise a hinge portion that can flex to allow relative movement of the inlet flange with respect to the supporting mount, said hinge portion comprising a notch in the strut.
Tie-down device for a vehicle , with a supporting fitting , to be mounted on the vehicle , and a tie-down bracket , wherein the supporting fitting is designed for a concealed arrangement on the vehicle and the tie-down bracket is guided so as to be longitudinally moveable in the pull-out direction between a rest position and a pulled-out tie-down position and optionally pivotable on the supporting fitting and can be supported against the tie-down forces on the supporting fitting , characterized in that , in its rest position , the tie-down bracket is supported on the supporting fitting and is thus guided on the supporting fitting such that it can be tilted to the side transversely to the pull-out direction .
Device for extracting an extraction material for solid-phase microextraction, comprising an extractor and a tip for penetrating a septum, as well as a guide sleeve in which the extractor is guided in a guide direction, characterized in that the extractor is connected to the tip in a stationary manner with respect to the tip and the tip is a conical tip.
Arrangement for interferometry, comprising: - a light source for generating coherent radiation , - a detector connected with a processing unit, - a beam splitter for dividing the radiation generated by the light source into a sample arm in which a sample to be examined can be positioned, and a reference arm , characterized in that an optical reference element , which is partially transparent to the radiation and which reflects a portion of the radiation towards the detector , is arranged in the beam path of the sample arm , behind which optical reference element the sample to be examined can be positioned, in that a focusing element is present in the sample arm , the focusing element having such a reflective power for the radiation that the optical path length of the sample arm from the beam splitter to the focus of the focusing element is longer than the optical path length of the reference arm maximally by the Rayleigh length of the radiation, in that a reflector in the reference arm and/or the optical reference element in the sample arm can be offset independently of each other, and in that the arrangement is configured for independently from each other conducting two different measurements for obtaining information on structures from different depths of the sample , wherein a first measurement is based on the interference of a first beam portion passing the reference arm with a second beam portion reaching the detector from the sample , and wherein a second measurement is based on the interference of a third beam portion being reflected from the reference element and reaching the detector with a fourth beam portion reaching the detector from the sample . - a light source for generating coherent radiation , - a detector connected with a processing unit, - a beam splitter for dividing the radiation generated by the light source into a sample arm in which a sample to be examined can be positioned, and a reference arm ,
Method for printing a three-dimensional structure by depositing droplets of printing ink at least partially side by side and one above the other, comprising the following steps: - depositing droplets of printing ink in a first printing step in order to build up an intermediate first pre-structure , - depositing droplets of printing ink in a second printing step in order to build up an intermediate second pre-structure on at least one side of the first pre-structure , - rotating the first pre-structure and arranging the first pre-structure on a support structure in a rearrangement step between the first and the second printing step, - wherein the support structure comprises a carrier substructure , characterized in that the support structure further comprises a deformation-control substructure , wherein the deformation-control substructure comprises a pressure chamber , wherein the pressure in the pressure chamber is dynamically adjusted to cancel the forces deforming the first pre-structure and/or the second pre-structure . - depositing droplets of printing ink in a first printing step in order to build up an intermediate first pre-structure , - depositing droplets of printing ink in a second printing step in order to build up an intermediate second pre-structure on at least one side of the first pre-structure , - rotating the first pre-structure and arranging the first pre-structure on a support structure in a rearrangement step between the first and the second printing step, - wherein the support structure comprises a carrier substructure ,
Food preparation vessel comprising a container provided with an upper edge defining a main opening for introducing food into the container and removing the obtained food preparation from said container , the food preparation vessel comprising at least one first holding handle mounted on an upper contour of the container and configured to handle the container , keeping it in a normal position with the main opening positioned at the top of the container , said food preparation vessel comprising a second holding handle mounted on the upper contour of the container and comprising a body provided with a lower face , the part of the upper contour of the container disposed opposite the second holding handle having none of the at least one first holding handle , characterized in that the lower face has a cavity extending depthwise into said body , by forming a reinforcement having a peripheral wall, said cavity being configured to accommodate at least the distal phalanges, preferably the distal and middle phalanges, of at least the three middle fingers of one hand and to allow the container to be held, suspended by means of said distal phalanges, in a tilted position for pouring or scraping out the food preparation.
A depth camera assembly (DCA) comprising: a structured light generator configured to illuminate a local area with a structured light pattern in accordance with emission instructions, the structured light generator comprising: an illumination source configured to emit optical beams , a programmable diffractive optical element (PDOE) that generates, based in part on the emission instructions, diffracted scanning beams from the optical beams , the PDOE functions as a dynamic diffraction grating that dynamically adjusts an angle of diffraction of the optical beams to generate the diffracted scanning beams of different patterns over different time instants, and a projection assembly configured to project the diffracted scanning beams as the structured light pattern into the local area , the structured light pattern being dynamically adjustable based on the angle of diffraction of the PDOE ; an imaging device configured to capture one or more images of at least a portion of the structured light pattern reflected from one or more objects in the local area ; and a controller configured to: generate the emission instructions, provide the emission instructions to the structured light generator , and determine depth information for the one or more objects based in part on the captured one or more images. an illumination source configured to emit optical beams , a programmable diffractive optical element (PDOE) that generates, based in part on the emission instructions, diffracted scanning beams from the optical beams , the PDOE functions as a dynamic diffraction grating that dynamically adjusts an angle of diffraction of the optical beams to generate the diffracted scanning beams of different patterns over different time instants, and a projection assembly configured to project the diffracted scanning beams as the structured light pattern into the local area , the structured light pattern being dynamically adjustable based on the angle of diffraction of the PDOE ; an imaging device configured to capture one or more images of at least a portion of the structured light pattern reflected from one or more objects in the local area ; and a controller configured to: generate the emission instructions, provide the emission instructions to the structured light generator , and determine depth information for the one or more objects based in part on the captured one or more images. generate the emission instructions, provide the emission instructions to the structured light generator , and determine depth information for the one or more objects based in part on the captured one or more images.
Method , implemented by a first telecommunications equipment (SB/Tal), for transmitting data to a second telecommunications equipment (Tal/SB), comprising: - coding input data to add redundancy by way of an encoder, - puncturing the data after coding, - transmitting the data after puncturing, and such that the puncturing is in accordance with at least two different levels of protection and such that it comprises at least one puncturing step comprising a first puncturing matrix the output of which is supplied to a demultiplexing stage having a first and a second output, characterized in that the second output is supplied to a second puncturing matrix so as to define the at least two different levels of protection obtained with the first output of the demultiplexing stage and the output of the second puncturing matrix, respectively. - coding input data to add redundancy by way of an encoder, - puncturing the data after coding, - transmitting the data after puncturing, and such that the puncturing is in accordance with at least two different levels of protection and such that it comprises at least one puncturing step comprising a first puncturing matrix the output of which is supplied to a demultiplexing stage having a first and a second output, characterized in that the second output is supplied to a second puncturing matrix so as to define the at least two different levels of protection obtained with the first output of the demultiplexing stage and the output of the second puncturing matrix, respectively.
A method of a network node, comprising: transmitting a first slot format information, in the following also referred to as SFI, to a User Equipment, in the following also referred to as UE, wherein the first SFI indicates transmitted direction of symbols of a first set of slots ; and transmitting a second SFI carried by a group common physical downlink control channel, in the following also referred to as PDCCH, to the UE, wherein the second SFI indicates transmitted direction of symbols of a second set of slots, and characterized in that if the first set of slots and the second set of slots are partially overlapped in time domain and the second SFI is transmitted after the first SFI, transmitted direction of overlapped symbols indicated by the second SFI is aligned with transmitted direction of the overlapped symbols indicated by the first SFI . transmitting a first slot format information, in the following also referred to as SFI, to a User Equipment, in the following also referred to as UE, wherein the first SFI indicates transmitted direction of symbols of a first set of slots ; and transmitting a second SFI carried by a group common physical downlink control channel, in the following also referred to as PDCCH, to the UE, wherein the second SFI indicates transmitted direction of symbols of a second set of slots, and characterized in that if the first set of slots and the second set of slots are partially overlapped in time domain and the second SFI is transmitted after the first SFI, transmitted direction of overlapped symbols indicated by the second SFI is aligned with transmitted direction of the overlapped symbols indicated by the first SFI .
Strap watch intended to be worn by a user, comprising: - a first hand normally indicating the hours, - a second hand normally indicating the minutes, - at least one accelerometer , - an electronic control unit , wherein the electronic control unit is configured so that it normally causes the time to be indicated by the hands, and is further configured to calculate at least a first individual activity amount representative of a physical activity of the user based on information collected by the accelerometer, and is further configured to display said first activity amount by means of at least one of said first and second hands and/or by means of a separate additional hand (3;30), wherein the first activity amount is calculated as a daily total, by default reset automatically at midnight every day by the electronic control unit, or is calculated as a total for a period of one week. - a first hand normally indicating the hours, - a second hand normally indicating the minutes, - at least one accelerometer , - an electronic control unit , wherein the electronic control unit is configured so that it normally causes the time to be indicated by the hands, and is further configured to calculate at least a first individual activity amount representative of a physical activity of the user based on information collected by the accelerometer, and is further configured to display said first activity amount by means of at least one of said first and second hands and/or by means of a separate additional hand (3;30), wherein the first activity amount is calculated as a daily total, by default reset automatically at midnight every day by the electronic control unit, or is calculated as a total for a period of one week.
A method comprising: receiving by a first gateway a data packet from a first host , wherein the data packet is in destination to a second host , the data packet comprising a MAC address of the second host as a destination MAC address and a MAC address of the first host as a source MAC address ; replacing by the first gateway the destination MAC address with a MAC address of a second gateway serving the second host and replacing the source MAC address by a combination of a shortened identifier of the first host and a shortened identifier of the second host; transmitting by the first gateway the data packet in accordance with the destination MAC address of the second gateway serving the second host. receiving by a first gateway a data packet from a first host , wherein the data packet is in destination to a second host , the data packet comprising a MAC address of the second host as a destination MAC address and a MAC address of the first host as a source MAC address ; replacing by the first gateway the destination MAC address with a MAC address of a second gateway serving the second host and replacing the source MAC address by a combination of a shortened identifier of the first host and a shortened identifier of the second host; transmitting by the first gateway the data packet in accordance with the destination MAC address of the second gateway serving the second host.