mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing including a first plate facing a front of the electronic device , a second plate facing away from the first plate , and a side bezel structure surrounding a space between the first plate and the second plate ; and a printed circuit board disposed at least at a portion of the space and including at least one processor , an antenna module , and at least one light source controlled by the at least one processor , wherein the side bezel structure includes at least two segmented antenna apparatuses and at least one photo-conductive material disposed between the segmented antenna apparatuses and configured to electrically connect the segmented antenna apparatuses to each other when the at least one photo-conductive material is irradiated by the at least one light source , and wherein the printed circuit board includes the at least one light source separated by a preset distance from the at least one photo-conductive material in a direction towards the at least one photo-conductive material . a housing including a first plate facing a front of the electronic device , a second plate facing away from the first plate , and a side bezel structure surrounding a space between the first plate and the second plate ; and a printed circuit board disposed at least at a portion of the space and including at least one processor , an antenna module , and at least one light source controlled by the at least one processor , wherein the side bezel structure includes at least two segmented antenna apparatuses and at least one photo-conductive material disposed between the segmented antenna apparatuses and configured to electrically connect the segmented antenna apparatuses to each other when the at least one photo-conductive material is irradiated by the at least one light source , and wherein the printed circuit board includes the at least one light source separated by a preset distance from the at least one photo-conductive material in a direction towards the at least one photo-conductive material .
A method of monitoring purity of hydrogen gas comprising: transferring a quantity of a hydrogen gas mixture, comprising hydrogen gas and non-hydrogen gas, through an electrochemical hydrogen pump, wherein the electrochemical hydrogen pump includes an anode, a cathode, and an electrolyte membrane located between the anode and the cathode; separating a quantity of hydrogen gas from the hydrogen gas mixture by transferring the hydrogen gas from the anode, through the electrolyte membrane, to the cathode while preventing non-hydrogen gas from passing through the electrolyte membrane, including applying a voltage to operate the electrochemical hydrogen pump; collecting the hydrogen gas from the cathode, and removing a quantity of non-hydrogen gas from the anode; the method being characterized by : monitoring the time between purge of the anode and a specific level of voltage increase, the time being a function of or proportional to the quantity of pollutants in the hydrogen gas mixture; and wherein a controller stops delivery of hydrogen gas to a consumer if below a predetermined threshold of purity; and providing a warranty that the collected_hydrogen gas has a purity that is at least substantially equal to the predetermined threshold of purity. transferring a quantity of a hydrogen gas mixture, comprising hydrogen gas and non-hydrogen gas, through an electrochemical hydrogen pump, wherein the electrochemical hydrogen pump includes an anode, a cathode, and an electrolyte membrane located between the anode and the cathode; separating a quantity of hydrogen gas from the hydrogen gas mixture by transferring the hydrogen gas from the anode, through the electrolyte membrane, to the cathode while preventing non-hydrogen gas from passing through the electrolyte membrane, including applying a voltage to operate the electrochemical hydrogen pump; collecting the hydrogen gas from the cathode, and removing a quantity of non-hydrogen gas from the anode; the method being characterized by : monitoring the time between purge of the anode and a specific level of voltage increase, the time being a function of or proportional to the quantity of pollutants in the hydrogen gas mixture; and wherein a controller stops delivery of hydrogen gas to a consumer if below a predetermined threshold of purity; and providing a warranty that the collected_hydrogen gas has a purity that is at least substantially equal to the predetermined threshold of purity.
Cold-formed steel brake piston for a hydraulic disk brake, constructed as a pot which is open on one side and comprises base and wall , including inner wall and outer wall , having wall thickness (s) which is directed substantially circularly symmetrically with respect to the piston longitudinal axis (A) and which is sectionally varied with differently varied inner diameter (di), wherein the wall sections , which are formed in a manner directed so as to be ironed substantially parallel to the piston longitudinal axis (A), adjoin the base , which is configured orthogonally at right angles to the piston longitudinal axis (A), and wherein, on the end-side wall section , the outer wall has a radially inwardly roll-formed groove which is open in a radially outward direction and which forms a groove-bead projection radially at the inside, and wherein the open side of the pot ends as a bearing for a friction-lining backplate, and this bearing extends as a planar piston end face orthogonally at right angles to the piston longitudinal axis (A), and having integrated interfaces which serve a) for the fixing between friction lining and steel brake piston and b) as support bearing for spring mounting of the friction lining, wherein, proceeding from the piston end face , the minimum piston inner diameter (d imin ) is axially set back in the direction of the base by a number of times the piston-wall thickness (s), and wherein the minimum piston inner diameter (d imin ) is formed by the groove-bead projection , characterized in that the end-side wall section has a smaller piston inner diameter (di) than the base-side wall section , wherein the groove-bead projection defines the minimum piston inner diameter (d imin ).
A toilet sanitiser comprising: a) a toilet sanitising block dispenser comprising: a housing comprising at least one wall defining an elongate enclosure configured to receive at least one toilet sanitising block; and a dispensing section contiguous with the housing ; b) at least one sanitising block located within the elongated enclosure in the housing ; the toilet sanitising block dispenser further comprises: the dispensing section being configured to receive at least a portion of said at least one sanitising block ; and wherein the dispensing section includes at least one aperture configured to permit the ingress of fluid into the dispensing section to cause the dissolution of sanitising blocks contained therein, and wherein the elongated enclosure in the housing is arranged to bias the at least one sanitising block contained therein towards the dispensing section; characterised in that the toilet sanitiser further comprises: a plurality of sanitising blocks located within the elongated enclosure in the housing ; c) a plurality of liquid barrier members , wherein the plurality of liquid barrier members is configured to be located between adjacent blocks stored within the elongated enclosure in the housing to prevent the flow of liquid between blocks . a) a toilet sanitising block dispenser comprising: a housing comprising at least one wall defining an elongate enclosure configured to receive at least one toilet sanitising block; and a dispensing section contiguous with the housing ; b) at least one sanitising block located within the elongated enclosure in the housing ; the toilet sanitising block dispenser further comprises: the dispensing section being configured to receive at least a portion of said at least one sanitising block ; and wherein the dispensing section includes at least one aperture configured to permit the ingress of fluid into the dispensing section to cause the dissolution of sanitising blocks contained therein, and wherein the elongated enclosure in the housing is arranged to bias the at least one sanitising block contained therein towards the dispensing section; characterised in that the toilet sanitiser further comprises: a plurality of sanitising blocks located within the elongated enclosure in the housing ; c) a plurality of liquid barrier members , wherein the plurality of liquid barrier members is configured to be located between adjacent blocks stored within the elongated enclosure in the housing to prevent the flow of liquid between blocks .
Spring-force connection for connecting an electrical conductor , comprising a housing part , an electrically conductive contact element arranged on the housing part for making electrical contact with a conductor connected to the spring-force connection , a spring element which has a clamping limb that can be adjusted relative to the contact element for applying a spring force to a conductor connected to the spring-force connection , an actuating element for adjusting the clamping limb , and a tension element which is movably coupled to the actuating element and is movably coupled to the clamping limb and is designed to exert a tensile force on the clamping limb , when the actuating element is actuated, in order to adjust the clamping limb relative to the contact element , characterized in that the tension element is formed by a bow element which is connected in an articulated manner to the actuating element via a first bow portion and detachably engages around the clamping limb by way of a second bow portion .
A touch panel comprising: a first substrate comprising a view area; a plurality of sensing patterns , where the plurality of sensing patterns are formed on the view area of the first substrate to sense an induced electromagnetic force generated from a touch pen; a plurality of capacitive patterns , where the plurality of capacitive patterns are formed on the view area of the substrate to sense static electricity; characterized in that said sensing patterns and said capacitive patterns are formed on the same first substrate as shown in any of figures 2 or 3, and the plurality of sensing patterns being insulated and by an overlap area positioned out of the first substrate as shown in any of figures 2 or 3, in which a plurality of insulated wires extended from the plurality of sensing patterns crosses each other only in the overlap area, wherein a second substrate, namely an overlap substrate , on which an insulation layer is stacked is formed in the overlap area, and the plurality of wires extended from the plurality of sensing patterns crosses each other through the insulation layer , wherein the overlap substrate is a Flexible Printed Circuit Board and wherein the overlap substrate is configured to be bent and then attached to either side of said first substrate . a first substrate comprising a view area; a plurality of sensing patterns , where the plurality of sensing patterns are formed on the view area of the first substrate to sense an induced electromagnetic force generated from a touch pen; a plurality of capacitive patterns , where the plurality of capacitive patterns are formed on the view area of the substrate to sense static electricity; characterized in that said sensing patterns and said capacitive patterns are formed on the same first substrate as shown in any of figures 2 or 3, and the plurality of sensing patterns being insulated and by an overlap area positioned out of the first substrate as shown in any of figures 2 or 3, in which a plurality of insulated wires extended from the plurality of sensing patterns crosses each other only in the overlap area, wherein a second substrate, namely an overlap substrate , on which an insulation layer is stacked is formed in the overlap area, and the plurality of wires extended from the plurality of sensing patterns crosses each other through the insulation layer , wherein the overlap substrate is a Flexible Printed Circuit Board and wherein the overlap substrate is configured to be bent and then attached to either side of said first substrate .
A method for assisting a user with the operation of a touch-sensitive operating unit , which is designed to detect predefined movement patterns in the form of a tapping movement and a zoom movement and a swipe movement as such, the predefined movement patterns being associated with respective third audio outputs that are different from each other, the method comprising the following steps: - detecting a presence of an input means , in particular of a finger of the user, in a predefined first region , which has no contact with the operating unit , in front of the operating unit , and, in response thereto, - acknowledging the detected presence by way of a predefined first audio output , wherein - the first region is delimited in a direction parallel to a surface of the operating unit corresponding to a button displayed on the operating unit , further comprising the following steps: - detecting one of the predefined movement patterns (P2) of the input means as a tapping movement or a zoom movement or a swipe movement in the first region , and, in response thereto, - acknowledging the predefined movement pattern (P2) by way of the third audio output associated with the predefined movement pattern (P2). - detecting a presence of an input means , in particular of a finger of the user, in a predefined first region , which has no contact with the operating unit , in front of the operating unit , and, in response thereto, - acknowledging the detected presence by way of a predefined first audio output , wherein - the first region is delimited in a direction parallel to a surface of the operating unit corresponding to a button displayed on the operating unit , further comprising the following steps: - detecting one of the predefined movement patterns (P2) of the input means as a tapping movement or a zoom movement or a swipe movement in the first region , and, in response thereto, - acknowledging the predefined movement pattern (P2) by way of the third audio output associated with the predefined movement pattern (P2).
A swimming pool cleaner comprising: • a body having a debris inlet and a debris outlet ; • at least one pair of wheels secured with respect to each side of the body for moving the cleaner along an underwater pool surface to clean debris therefrom; and characterised by • a tool-free wheel-mounting assembly including each of the wheels having a ball bearing which rotatably holds such wheel on a non-rotating shaft extending laterally from a respective side of the cleaner body , each ball bearing having an interior configuration matching an exterior configuration of the non-rotating shaft in non-rotating engagement therewith. • a body having a debris inlet and a debris outlet ; • at least one pair of wheels secured with respect to each side of the body for moving the cleaner along an underwater pool surface to clean debris therefrom; • a tool-free wheel-mounting assembly including each of the wheels having a ball bearing which rotatably holds such wheel on a non-rotating shaft extending laterally from a respective side of the cleaner body , each ball bearing having an interior configuration matching an exterior configuration of the non-rotating shaft in non-rotating engagement therewith.
A method of transmitting a Device-to-Device, D2D, signal by a User Equipment, UE, in a wireless communication system, the method comprising: receiving a synchronization signal; and transmitting a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, based on the received synchronization signal, wherein a fixed timing advance offset applied to the transmission of the PSS and the SSS based on the UE being in coverage and the UE being in a radio resource control, RRC, idle state has a value greater than 0, wherein a fixed timing advance offset applied to the transmission of the PSS and the SSS based on the UE being out of coverage has a value equal to 0, and wherein the fixed timing advance offset is applied based on a radio frame which the synchronization signal is received through. receiving a synchronization signal; and transmitting a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, based on the received synchronization signal, wherein a fixed timing advance offset applied to the transmission of the PSS and the SSS based on the UE being in coverage and the UE being in a radio resource control, RRC, idle state has a value greater than 0, wherein a fixed timing advance offset applied to the transmission of the PSS and the SSS based on the UE being out of coverage has a value equal to 0, and wherein the fixed timing advance offset is applied based on a radio frame which the synchronization signal is received through.
Heat sink for a plurality of memory modules that are connectable to an electronic board , characterized in that it comprises at least one envelope , said envelope comprising: ∘ an upper surface designed to at least partially cover the upper portion of a memory module of a plurality of memory modules, ∘ at least two outer tabs , each outer tab being designed to be in thermal contact with at least one heat exchange surface among the two heat exchange surfaces of at least one memory module of the plurality of memory modules, ∘ at least one contact surface , designed to be in thermal contact with a fluidic cooling system of said electronic board when each memory module of the plurality of memory modules is connected to said electronic board , ∘ at least one inner tab , designed to be interposed between two memory modules of the plurality of memory modules in order to establish thermal contact with at least one heat exchange surface among the two heat exchange surfaces of each of the memory modules , - said envelope being designed to be removably placed against the two exchange surfaces of each memory module of the plurality of memory modules, - said envelope being designed to be removably mechanically secured to said electronic board when each memory module of the plurality of memory modules is connected to said electronic board , characterized in that the at least one outer tab has a beveled or rounded shape on its inner surface. ∘ an upper surface designed to at least partially cover the upper portion of a memory module of a plurality of memory modules, ∘ at least two outer tabs , each outer tab being designed to be in thermal contact with at least one heat exchange surface among the two heat exchange surfaces of at least one memory module of the plurality of memory modules, ∘ at least one contact surface , designed to be in thermal contact with a fluidic cooling system of said electronic board when each memory module of the plurality of memory modules is connected to said electronic board , ∘ at least one inner tab , designed to be interposed between two memory modules of the plurality of memory modules in order to establish thermal contact with at least one heat exchange surface among the two heat exchange surfaces of each of the memory modules , - said envelope being designed to be removably placed against the two exchange surfaces of each memory module of the plurality of memory modules, - said envelope being designed to be removably mechanically secured to said electronic board when each memory module of the plurality of memory modules is connected to said electronic board ,
A composite iron-based powder mixture comprising iron particles coated with: 1) a first layer which is a phosphorous containing layer; and 2) a second layer which contains an alkaline silicate combined with a clay, wherein the clay contains a phyllosilicate, and wherein the clay is particulate with a particle size (D 50 ) of 0.1-0.4μm as measured by analytical centrifuge analysis according to standards ISO 13318-1 and ISO 13318-2, and wherein the content of clay is between 0.2-5% by weight of the composite iron-based powder. 1) a first layer which is a phosphorous containing layer; and 2) a second layer which contains an alkaline silicate combined with a clay,
A refrigerating air conditioning system provided with a refrigerant circuit including a compressor , an indoor heat exchanger , a first pressure reducing device , an outdoor heat exchanger , and a switching device for switching a direction of a refrigerant flow between heating and cooling modes for supplying heat from the indoor heat exchanger , outdoor pipe refrigerant temperature detection means of the outdoor heat exchanger to detect an outdoor pipe temperature corresponding to a refrigerant temperature of the outdoor heat exchanger characterized in that outdoor air temperature detection means to detect an outdoor air temperature are provided for determining a state of a frost formed on the outdoor heat exchanger ; two types of defrosting inhibition time values τ1 and τ3 are allowed to be set in accordance with a previous defrosting time τ2 for continuously performing heating operation; a measurement control unit performing a defrosting operation by controlling the defrosting inhibition time values τ1, τ3 to be long when an amount of the frost formed on the outdoor heat exchanger is determined to be small based on the previous defrosting time τ2, and the defrosting inhibition time values t1, τ3 to be short when the amount of the frost formed on the outdoor heat exchanger is determined to be large based on the previous defrosting time t2, the two types of defrosting inhibition time values τ1 and τ3 are correlated to establish a relationship of τ1 ≥ τ3; when the amount of frost formed on the outdoor heat exchanger is determined to be small based on the temperatures detected by the outdoor pipe refrigerant temperature detection means and outdoor air temperature detection means , a determination with respect to switching to a defrosting operation is made based on the outdoor pipe temperature detection means and the defrosting inhibition time τ1; and when the amount of frost formed on the outdoor heat exchanger is determined to be large based on the temperatures detected by the outdoor pipe refrigerant temperature detection means and outdoor air temperature detection means , a determination with respect to switching to a defrosting operation is made based on the outdoor pipe refrigerant temperature detection means , an outdoor air temperature detection means and the defrosting inhibition time value τ3.
Abrasive means in the form of a flat material with a flat carrier material , on the upper side of which a granular layer is fixed, characterized in that a layer of polyurethane is arranged on the upper side of the carrier material , in which the grains of the granular layer are embedded, and that the flat carrier material consists of polyvinyl chloride (PVC), polyethersulfone (PES), polypropylene (PP), polyamide (PA), polyethylene (PE), polyurethane (PUR) or mixtures thereof.