mhurhangee/patent-ind-claim-en huggingface dataset:
A coupling structure of a wiper arm coupled to a blade holding member in an attachable/detachable manner on the wiper arm , the coupling structure comprising: the wiper arm ; a coupling member that is fixed to an arm shank constituting the wiper arm ; and the blade holding member that engages with the coupling member and holds a wiper blade , wherein the coupling member is positioned between the arm shank and the blade holding member , and wherein the arm shank comprises a coupling engagement portion capable of fixing the coupling member at any position in a longitudinal direction of the arm shank , wherein the arm shank comprises a pair of inner wall surfaces facing each other, wherein the coupling engagement portion engaging with the coupling member is formed on each of the inner wall surfaces , and wherein the coupling engagement portion is continuously connected in the longitudinal direction of the arm shank , the coupling structure being characterized in that the coupling engagement portion is a rail portion protruding from the inner wall surface of the arm shank , and wherein the coupling member has a protruding portion engaging with the rail portion. the wiper arm ; a coupling member that is fixed to an arm shank constituting the wiper arm ; and the blade holding member that engages with the coupling member and holds a wiper blade , wherein the coupling member is positioned between the arm shank and the blade holding member , and wherein the arm shank comprises a coupling engagement portion capable of fixing the coupling member at any position in a longitudinal direction of the arm shank , wherein the arm shank comprises a pair of inner wall surfaces facing each other, wherein the coupling engagement portion engaging with the coupling member is formed on each of the inner wall surfaces , and wherein the coupling engagement portion is continuously connected in the longitudinal direction of the arm shank , the coupling structure being characterized in that the coupling engagement portion is a rail portion protruding from the inner wall surface of the arm shank , and wherein the coupling member has a protruding portion engaging with the rail portion.
Apparatus for electrosurgery, adapted to be coupled to an electrical lead, comprising: a monopolar stainless steel electrode defining at its end a portion adapted to be coupled to the electrical lead, a working portion of the electrode extending from the end and having an elongated shape and terminating at its extremity in a curved portion, wherein an electrically insulating layer of glass partially covers the sides of the working portion and at least partially exposes an edge of the electrode, which edge lies more or less flush with the glass layer and has a width in the range 0.01 to 0.1mm, wherein the edge of the electrode is adapted for cutting of tissue and the sides are adapted for coagulation of tissue.
A multi-purpose automatic patient transfer system for transferring a person between a bed and a mobile sitting device , said multi-purpose automatic patient transfer system comprising said bed and said mobile sitting device; said bed comprising an interleaf structure of first cushions and padding , said padding being raiseable, expandable, lowerable, or contractible; characterized in that said bed is a reclinable bed adaptable into an upright sitting position and further comprises: an extendible elongate supporting means for supporting said padding , supporting the weight of a person, and transferring the person sideways to said mobile sitting device; wherein said mobile sitting device comprises alternating second cushions and at least one slot running across a width of its seat, wherein said mobile sitting device further comprises inflatable cushions with an air valve, wherein said inflatable cushions are mounted in said at least one slot, whereupon said second cushions are configured to form an interleaf structure with the extendible elongate supporting means of said multi-purpose bed. said multi-purpose automatic patient transfer system comprising said bed and said mobile sitting device; said bed comprising an interleaf structure of first cushions and padding , said padding being raiseable, expandable, lowerable, or contractible; characterized in that said bed is a reclinable bed adaptable into an upright sitting position and further comprises: an extendible elongate supporting means for supporting said padding , supporting the weight of a person, and transferring the person sideways to said mobile sitting device; wherein said mobile sitting device comprises alternating second cushions and at least one slot running across a width of its seat, wherein said mobile sitting device further comprises inflatable cushions with an air valve, wherein said inflatable cushions are mounted in said at least one slot, whereupon said second cushions are configured to form an interleaf structure with the extendible elongate supporting means of said multi-purpose bed.
An oriented loading system, comprising: a substrate ; a plurality of wells formed in the substrate , each well having a bottom and sidewalls , the sidewalls having an upper part and a lower part; a plurality of particles loaded in the wells , wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure , and the inner layer optionally is further covered by an outer layer , wherein a part of the core structure uncovered by the inner layer is exposed or is further covered by a coating layer; wherein the inner core structure comprises non-magnetic materials; a metal layer comprising magnetic material deposited partially in the sidewalls of the wells , wherein the inner layer is attracted by the metal layer such that the exposed core structure or the coating layer, or the inner layer or the outer layer becomes a bottom side of the particle oriented towards the bottom of the well ; and wherein the well has a width (d) which is 1-3 times the diameter of the particle . a substrate ; a plurality of wells formed in the substrate , each well having a bottom and sidewalls , the sidewalls having an upper part and a lower part; a plurality of particles loaded in the wells , wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure , and the inner layer optionally is further covered by an outer layer , wherein a part of the core structure uncovered by the inner layer is exposed or is further covered by a coating layer; wherein the inner core structure comprises non-magnetic materials; a metal layer comprising magnetic material deposited partially in the sidewalls of the wells , wherein the inner layer is attracted by the metal layer such that the exposed core structure or the coating layer, or the inner layer or the outer layer becomes a bottom side of the particle oriented towards the bottom of the well ; and wherein the well has a width (d) which is 1-3 times the diameter of the particle .
A system for extraction of head-driven tidal energy with minimal negative environmental effects, the system comprising: a closed on-shore bladder located at a local mean sea level; a closed off-shore bladder in communication with the on-shore bladder ; a liquid at least partially disposed within one of the on-shore bladder and the off-shore bladder , the liquid adapted to flow between the on-shore bladder and the off-shore bladder depending on a pressure differential between the bladders; a turbine housing disposed between the on-shore bladder and the off-shore bladder; and a hydropower turbine disposed within the turbine housing , wherein the turbine captures potential energy derived from head differentials over a tidal cycle between the on-shore bladder and the off-shore bladder ; wherein head-driven tidal energy is captured when a water level above the off-shore bladder rises or falls, thereby altering the pressure differential between the bladders, and thereby altering a flow velocity of the liquid between the off-shore bladder and the on-shore bladder . a closed on-shore bladder located at a local mean sea level; a closed off-shore bladder in communication with the on-shore bladder ; a liquid at least partially disposed within one of the on-shore bladder and the off-shore bladder , the liquid adapted to flow between the on-shore bladder and the off-shore bladder depending on a pressure differential between the bladders; a turbine housing disposed between the on-shore bladder and the off-shore bladder; and a hydropower turbine disposed within the turbine housing , wherein the turbine captures potential energy derived from head differentials over a tidal cycle between the on-shore bladder and the off-shore bladder ; wherein head-driven tidal energy is captured when a water level above the off-shore bladder rises or falls, thereby altering the pressure differential between the bladders, and thereby altering a flow velocity of the liquid between the off-shore bladder and the on-shore bladder .
Tube connection for example a hose fitting for connection to a tube , which tube connection comprises a body having a through hole with a central axis, a first end, a second end, an internal thread arranged close to the first end and coaxial with the central axis, wherein the internal thread has a constant pitch diameter (D p ), characterized in that the maximum diameter (D max ) of the thread increases in axial direction from the first end towards the second end and wherein the minimum diameter (D min ) of the thread decrease in axial direction from the first end towards the second end.
Method for the separation of at least one emulsion by applying at least one direct current (DC) field and at least one alternating current (AC) field in series to the emulsion to be treated characterized in that the at least one alternating current (AC) field is applied with an electrical field strength between 2,000 and 100,000 V/m and a high frequency (HF) between 1,000 Hz and 200,000 Hz, wherein the method is conducted in a device comprising at least one vessel with at least one module, at least one first electrode positioned alongside the at least one module of the vessel, and at least one second electrode positioned within the at least one module of the vessel.
An apparatus, comprising: an loT support service (351; 451), including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, causes the IoT support service (351; 451) to perform actions, including: storing a plurality of module twins that respectively correspond to a plurality of modules of an edge application on an edge device (311, 312, 341, 342, 343; 411), wherein the plurality of module twins individually include metadata associated with the corresponding module of the plurality of modules , and wherein the plurality of modules are compositable together into the edge application , and the modules of the plurality of modules are capable of being used interoperably with other modules without altering the other modules; enabling communications between the modules of the plurality of modules and the loT support service (351; 451) according to a common security context; determining at least one module of the plurality of modules to be modified by adding a declarative rule, such that the declarative rule causes determining whether an event has been triggered, and, in response to the triggering of the event, communicating the triggering of the event to at least one declarative target; and causing the determined at least one module of the plurality of modules to be modified by adding the declarative rule. storing a plurality of module twins that respectively correspond to a plurality of modules of an edge application on an edge device (311, 312, 341, 342, 343; 411), wherein the plurality of module twins individually include metadata associated with the corresponding module of the plurality of modules , and wherein the plurality of modules are compositable together into the edge application , and the modules of the plurality of modules are capable of being used interoperably with other modules without altering the other modules; wherein the plurality of module twins individually include metadata associated with the corresponding module of the plurality of modules , and wherein the plurality of modules are compositable together into the edge application , and the modules of the plurality of modules are capable of being used interoperably with other modules without altering the other modules; enabling communications between the modules of the plurality of modules and the loT support service (351; 451) according to a common security context; determining at least one module of the plurality of modules to be modified by adding a declarative rule, such that the declarative rule causes determining whether an event has been triggered, and, in response to the triggering of the event, communicating the triggering of the event to at least one declarative target; and causing the determined at least one module of the plurality of modules to be modified by adding the declarative rule.
A composite material comprising: a metal foam, said metal foam in the form of a film; and a polymer component, wherein the polymer component is on a surface of the metal foam or in the interior of the metal foam, wherein the polymer component forms a surface layer on the surface of the metal foam, wherein the polymer component comprises one or more selected from the group consisting of an acrylic resin, a silicone resin, an epoxy resin, a urethane resin, an amino resin and a phenol resin, wherein the polymer component comprises a thermally conductive filler, wherein the metal foam has a skeleton comprising any one metal selected from the group consisting of copper, gold, silver, aluminum, nickel, iron, cobalt, magnesium, molybdenum, tungsten, zinc and combination of two or more thereof, wherein the ratio (MV/PV) of the volume (PV) of the polymer component and the volume (MV) of the metal foam is 10 or less, wherein the metal foam has porosity in a range of from 10 to 99%, wherein the thermally conductive filler has a thermal conductivity in the range from 1 W/mK to 400 W/mK, and wherein the thermally conductive filler is included in the composite material in a volume ratio in the range of 1 vol% to 80 vol%, the volume ratio being a value calculated based on the weight and density of each of the components constituting the composite material. a metal foam, said metal foam in the form of a film; and a polymer component, wherein the polymer component is on a surface of the metal foam or in the interior of the metal foam, wherein the polymer component forms a surface layer on the surface of the metal foam, wherein the polymer component comprises one or more selected from the group consisting of an acrylic resin, a silicone resin, an epoxy resin, a urethane resin, an amino resin and a phenol resin, wherein the polymer component comprises a thermally conductive filler, wherein the metal foam has a skeleton comprising any one metal selected from the group consisting of copper, gold, silver, aluminum, nickel, iron, cobalt, magnesium, molybdenum, tungsten, zinc and combination of two or more thereof, wherein the ratio (MV/PV) of the volume (PV) of the polymer component and the volume (MV) of the metal foam is 10 or less, wherein the metal foam has porosity in a range of from 10 to 99%, wherein the thermally conductive filler has a thermal conductivity in the range from 1 W/mK to 400 W/mK, and wherein the thermally conductive filler is included in the composite material in a volume ratio in the range of 1 vol% to 80 vol%, the volume ratio being a value calculated based on the weight and density of each of the components constituting the composite material.
Glycosyltransferase for producing an aroma glycoside coded by a nucleic acid sequence that a) comprises the sequence of SEQ-ID2. a) comprises the sequence of SEQ-ID2.
A radially expandable backup ring for a downhole packer or bridge plug including: a plurality of relatively rigid segments that are circumferentially arranged around a longitudinal axis (A); and a plurality of relatively resilient segments that are circumferentially arranged around the longitudinal axis (A) and are each alternately disposed with respect to each relatively rigid segment, wherein the relatively rigid segments and the relatively resilient segments together circumscribe the longitudinal axis (A), and wherein each relatively rigid segment has a radially inner surface that faces the longitudinal axis (A), a radially outer surface that faces away from the longitudinal axis (A), a first axially facing surface , and a second axially facing surface that faces away from the first axially facing surface, wherein the radially inner surfaces at least partially define an axial through hole that extends along the longitudinal axis (A); wherein each of the relatively resilient segments resiliently connects a pair of adjacent relatively rigid segments, and wherein each relatively resilient segment extends circumferentially between the corresponding pair of adjacent relatively rigid segments to resiliently expand circumferentially when the relatively rigid segments are moved radially outwardly to expand the backup ring, thereby circumferentially urging together adjacent relatively rigid segments with the relatively resilient segments. a plurality of relatively rigid segments that are circumferentially arranged around a longitudinal axis (A); and a plurality of relatively resilient segments that are circumferentially arranged around the longitudinal axis (A) and are each alternately disposed with respect to each relatively rigid segment, wherein the relatively rigid segments and the relatively resilient segments together circumscribe the longitudinal axis (A), and wherein each relatively rigid segment has a radially inner surface that faces the longitudinal axis (A), a radially outer surface that faces away from the longitudinal axis (A), a first axially facing surface , and a second axially facing surface that faces away from the first axially facing surface, wherein the radially inner surfaces at least partially define an axial through hole that extends along the longitudinal axis (A); wherein each of the relatively resilient segments resiliently connects a pair of adjacent relatively rigid segments, and wherein each relatively resilient segment extends circumferentially between the corresponding pair of adjacent relatively rigid segments to resiliently expand circumferentially when the relatively rigid segments are moved radially outwardly to expand the backup ring, thereby circumferentially urging together adjacent relatively rigid segments with the relatively resilient segments.
An Ethernet frame injection apparatus for injecting frames from a node into a switched Ethernet network, the frame injection apparatus comprising: an injector input and an injector output , respectively coupleable to the switched Ethernet network via at least one of first and second ports; a host transmit input , coupleable to a host device for communicating host frames; a frame memory , to store frames including both network frames and host frames; a receive router , coupled to the first port and selectively routing network frames to one of first and second router outputs, wherein the first router output is coupled to the frame memory; a transmit frame selector , coupled to receive frames from the frame memory and the second router output, and to selectively provide frames to the injector output; an injection state apparatus adapted to automatically determine a first, second and third operational state for the frame injection apparatus, wherein: the first operational state comprises an idle state in which a network frame received at the injector input from the Ethernet switched network is coupled to the injector output via the receive router and the transmit frame selector; the second operational state comprises storing a host frame received at the host transmit input in the frame memory; and the third operational state comprises a transmit state in which the transmit frame selector couples the frame memory to the injector output to transmit a frame stored in the frame memory onto the Ethernet switched network. an injector input and an injector output , respectively coupleable to the switched Ethernet network via at least one of first and second ports; a host transmit input , coupleable to a host device for communicating host frames; a frame memory , to store frames including both network frames and host frames; a receive router , coupled to the first port and selectively routing network frames to one of first and second router outputs, wherein the first router output is coupled to the frame memory; a transmit frame selector , coupled to receive frames from the frame memory and the second router output, and to selectively provide frames to the injector output; an injection state apparatus adapted to automatically determine a first, the first operational state comprises an idle state in which a network frame received at the injector input from the Ethernet switched network is coupled to the injector output via the receive router and the transmit frame selector; the second operational state comprises storing a host frame received at the host transmit input in the frame memory; and the third operational state comprises a transmit state in which the transmit frame selector couples the frame memory to the injector output to transmit a frame stored in the frame memory onto the Ethernet switched network.
A method of forming a textured effect on a glass substrate , the method comprising the steps of: a) creating a data file of an image to be formed as the textured effect on the glass substrate, the data file comprising at least one print image and a number of times specified for printing of the at least one print image ; b) preparing the data file for surface deposition by a printer ; c) providing the glass substrate on the printer ; d) the printer printing the at least one print image in the data file on the substrate using only a clear ink to form a layer of ink ; e) the printer UV curing the layer of ink ; f) repeating steps (d) and (e) for every print image of the at least one print image for the number of times specified in the data file so that the image formed as the textured effect on the glass substrate comprises a plurality of layers of printed and UV cured clear ink. a) creating a data file of an image to be formed as the textured effect on the glass substrate, the data file comprising at least one print image and a number of times specified for printing of the at least one print image ; b) preparing the data file for surface deposition by a printer ; c) providing the glass substrate on the printer ; d) the printer printing the at least one print image in the data file on the substrate using only a clear ink to form a layer of ink ; e) the printer UV curing the layer of ink ; f) repeating steps (d) and (e) for every print image of the at least one print image for the number of times specified in the data file so that the image formed as the textured effect on the glass substrate comprises a plurality of layers of printed and UV cured clear ink.