mhurhangee/ep-ind-claims huggingface dataset:
A multi-stage positive displacement vacuum pump comprising a plurality of inlets (10, 20), said vacuum pump comprising: a housing for housing at least one rotor mounted for rotation on a corresponding at least one shaft and for pumping gas through the multiple stages (12, 22, 32, 42, 52, 62, 72) of the pump for output through an exhaust; said housing comprising said plurality of inlets (10, 20), said plurality of inlets (10, 20) comprising: a first inlet configured to admit gas to an inlet stage of said vacuum pump; a further inlet configured to admit gas to an intermediate stage (22, 32, 42, 52, 62) of said vacuum pump; and a diversion channel for diverting gas flow from a pump stage on a first inlet side of said intermediate stage to another pump stage on an exhaust side of said intermediate stage, wherein said pump is configured such that gas admitted through each of said first and further inlets (10,20) is pumped together as a combined gas flow by at least one stage of said vacuum pump downstream of said intermediate stage; and said vacuum pump is configured to differentially pump multiple chambers (84, 86), said first inlet being configured to connect to a lower vacuum chamber and said intermediate inlet being configured to act as a backing pump for a vacuum pump pumping a higher vacuum chamber. a housing for housing at least one rotor mounted for rotation on a corresponding at least one shaft and for pumping gas through the multiple stages (12, 22, 32, 42, 52, 62, 72) of the pump for output through an exhaust; said housing comprising said plurality of inlets (10, 20), said plurality of inlets (10, 20) comprising: a first inlet configured to admit gas to an inlet stage of said vacuum pump; a further inlet configured to admit gas to an intermediate stage (22, 32, 42, 52, 62) of said vacuum pump; and a diversion channel for diverting gas flow from a pump stage a first inlet configured to admit gas to an inlet stage of said vacuum pump; a further inlet configured to admit gas to an intermediate stage (22, 32, 42, 52, 62) of said vacuum pump; and a diversion channel for diverting gas flow from a pump stage on a first inlet side of said intermediate stage to another pump stage on an exhaust side of said intermediate stage, wherein said pump is configured such that gas admitted through each of said first and further inlets (10,20) is pumped together as a combined gas flow by at least one stage of said vacuum pump downstream of said intermediate stage; and said vacuum pump is configured to differentially pump multiple chambers (84, 86), said first inlet being configured to connect to a lower vacuum chamber and said intermediate inlet being configured to act as a backing pump for a vacuum pump pumping a higher vacuum chamber.
A lighting device having a plurality of light sources, wherein the lighting device comprises multiple superposed layers, having - a first electrically conductive layer and a second electrically conductive layer that are designed for generating an alternating electrical field between them, - an alternating voltage source, - an electrically insulating layer between the first and second electrically conductive layers (18, 24), wherein - the alternating voltage source is directly connected to the first electrically conductive layer and the second electrically conductive layer via two connecting lines (36, 38), characterized by - a first luminescent layer between the first and second electrically conductive layers (18, 24), the first luminescent layer extending along the first and second electrically conductive layers (18, 24), - a second luminescent layer between the first and second electrically conductive layers (18, 24), the second luminescent layer extending along the first and second electrically conductive layers (18, 24), wherein - electroluminescent material is situated in both the first luminescent layer and the second luminescent layer in multiple spatially separate, spaced-apart regions (30, 30'; 30a), each of which forms a light source, - the second luminescent layer is applied to the first luminescent layer, and - the spatially separate regions (30, 30'; 30a) are situated in different planes in the first luminescent layer and the second luminescent layer. - a first electrically conductive layer and a second electrically conductive layer that are designed for generating an alternating electrical field between them, - an alternating voltage source, - an electrically insulating layer between the first and second electrically conductive layers (18, 24), wherein - the alternating voltage source is directly connected to the first electrically conductive layer and the second electrically conductive layer via two connecting lines (36, 38), - a first luminescent layer between the first and second electrically conductive layers (18, 24), the first luminescent layer extending along the first and second electrically conductive layers (18, 24), - a second luminescent layer between the first and second electrically conductive layers (18, 24), the second luminescent layer extending along the first and second electrically conductive layers (18, 24), wherein - electroluminescent material is situated in both the first luminescent layer and the second luminescent layer in multiple spatially separate, spaced-apart regions (30, 30'; 30a), each of which forms a light source, - the second luminescent layer is applied to the first luminescent layer, and - the spatially separate regions (30, 30'; 30a) are situated in different planes in the first luminescent layer and the second luminescent layer.
A semiconductor device comprising: a group 13 nitride heterojunction comprising a first layer having a first bandgap and a second layer having a second bandgap, wherein the first layer is located between a substrate and the second layer; a buffer layer located between the substrate and the first layer; a Schottky electrode and a first further electrode each conductively coupled to a different area of the heterojunction, said Schottky electrode comprising a central region and an edge region, wherein the device comprises a conductive barrier portion located underneath said edge region only of the Schottky electrode for locally increasing the Schottky barrier of the Schottky electrode; a capping layer over the second layer, wherein the capping layer comprises a modified portion defining the conductive barrier portion; wherein the capping layer comprises gallium nitride; characterised in that the modified portion has an increased thickness compared to the remainder of the capping layer. a group 13 nitride heterojunction comprising a first layer having a first bandgap and a second layer having a second bandgap, wherein the first layer is located between a substrate and the second layer; a buffer layer located between the substrate and the first layer; a Schottky electrode and a first further electrode each conductively coupled to a different area of the heterojunction, said Schottky electrode comprising a central region and an edge region, wherein the device comprises a conductive barrier portion located underneath said edge region only of the Schottky electrode for locally increasing the Schottky barrier of the Schottky electrode; a capping layer over the second layer, wherein the capping layer comprises a modified portion defining the conductive barrier portion; wherein the capping layer comprises gallium nitride; characterised in that the modified portion has an increased thickness compared to the remainder of the capping layer.
A robotic cleaner, comprising: a cleaning assembly (11, 26, 32, 44, 51, 82, 94) for cleaning a surface; and a main robot body (12, 23, 141, 151 174, 191, 222), the main robot body housing a drive system (173, 202, 214), to cause movement of the robotic cleaner; and a microcontroller to control the movement of the robotic cleaner, wherein the cleaning assembly (11, 26, 32, 44, 51, 82, 94) is located in front of the drive system (173, 202, 214) wherein the robot further comprises: a wedge sensor configured to detect situations where the robotic cleaner is about to get jammed under obstacles, characterized in that: the width of the cleaning assembly (11, 26, 32, 44, 51, 82, 94) is greater than the width of the main robot body (12, 23, 141, 151 174, 191, 222). a cleaning assembly (11, 26, 32, 44, 51, 82, 94) for cleaning a surface; and a main robot body (12, 23, 141, 151 174, 191, 222), the main robot body housing a drive system (173, 202, 214), to cause movement of the robotic cleaner; and a microcontroller to control the movement of the robotic cleaner, wherein the cleaning assembly (11, 26, 32, 44, 51, 82, 94) is located in front of the drive system (173, 202, 214) wherein the robot further comprises: a wedge sensor configured to detect situations where the robotic cleaner is about to get jammed under obstacles, characterized in that: the width of the cleaning assembly (11, 26, 32, 44, 51, 82, 94) is greater than the width of the main robot body (12, 23, 141, 151 174, 191, 222).
Rechargeable battery module, comprising - at least one rechargeable battery cell, and - a sleeve which encloses the rechargeable battery cell, wherein the sleeve comprises fibres, wherein intermediate spaces remain between the fibres, characterized in that - the sleeve has a net-like structure, and - the fibres are composed of an electrically non-conductive material. - at least one rechargeable battery cell, and - a sleeve which encloses the rechargeable battery cell, wherein the sleeve comprises fibres, wherein intermediate spaces remain between the fibres, - the sleeve has a net-like structure, and - the fibres are composed of an electrically non-conductive material.
A method for performing a differential nucleated blood cell count in a sample of anticoagulated whole blood which quiescently resides within a sampling chamber, and which sample is diluted by no more than 1:1, said method comprising: a) the step of providing an admixture of at least one fluorescent colorant and anticoagulated whole blood in said sampling chamber, said colorant being operable to differentially highlight different nucleated blood cell types in the whole blood; b) the step of optically performing a multi-field X-Y-Z scan of the dispersed admixture in said chamber under suitable lighting conditions that will cause different nucleated blood cell types to be differentially highlighted by said colorant; c) the step of photometrically and morphometrically separating at least one nucleated blood cell sub-population into a distinct cluster (40,41,42,43,44,45,46) so as to differentiate the sub-populations of nucleated blood cells from other nucleated blood cells which are detected in said scanning step; d) the step of enumerating and categorizing the nucleated blood cells in said cluster; and e) the step of producing a cell count of the nucleated blood cell sub-populations in said cluster. a) the step of providing an admixture of at least one fluorescent colorant and anticoagulated whole blood in said sampling chamber, said colorant being operable to differentially highlight different nucleated blood cell types in the whole blood; b) the step of optically performing a multi-field X-Y-Z scan of the dispersed admixture in said chamber under suitable lighting conditions that will cause different nucleated blood cell types to be differentially highlighted by said colorant; c) the step of photometrically and morphometrically separating at least one nucleated blood cell sub-population into a distinct cluster (40,41,42,43,44,45,46) so as to differentiate the sub-populations of nucleated blood cells from other nucleated blood cells which are detected in said scanning step; d) the step of enumerating and categorizing the nucleated blood cells in said cluster; and e) the step of producing a cell count of the nucleated blood cell sub-populations in said cluster.
Process for producing superacid-acidified, in particular trifluoromethanesulfonic acid-acidified, end-equilibrated acetoxy-bearing siloxanes, characterized in that it comprises reacting cyclic siloxanes, in particular comprising D 4 and/or D 5, and/or mixtures of cyclic branched siloxanes of the D/T type, optionally in admixture with hydroxy-bearing siloxanes and/or acetoxy- and/or alkoxy-bearing silanes and/or siloxanes, with acetic anhydride and with addition of acetic acid, using superacid, in particular trifluoromethanesulfonic acid, as catalyst, wherein the cyclic branched siloxanes of the D/T type are mixtures of cyclic branched siloxanes of the D/T type which contain not only siloxanes comprising D and T units but also siloxanes comprising Q units with the proviso that in these mixtures the proportion of Si atoms derived from Q units is ≤ 10% by mass to ≥ 0% by mass, preferably ≤ 5% by mass to ≥ 0% by mass, based on the entirety of all Si atoms. it comprises reacting cyclic siloxanes, in particular comprising D 4 and/or D 5, and/or mixtures of cyclic branched siloxanes of the D/T type, optionally in admixture with hydroxy-bearing siloxanes and/or acetoxy- and/or alkoxy-bearing silanes and/or siloxanes, with acetic anhydride and with addition of acetic acid, using superacid, in particular trifluoromethanesulfonic acid, as catalyst, wherein the cyclic branched siloxanes of the D/T type are mixtures of cyclic branched siloxanes of the D/T type which contain not only siloxanes comprising D and T units but also siloxanes comprising Q units with the proviso that in these mixtures the proportion of Si atoms derived from Q units is ≤ 10% by mass to ≥ 0% by mass, preferably ≤ 5% by mass to ≥ 0% by mass, based on the entirety of all Si atoms.
A method of wireless communication, comprising: transmitting data over a communication medium, from a first transmitting node to a first receiving node, during a plurality of time segments (424A, 424B) defined within a first time period, wherein the first time period comprises a scheduled transmit time period including said plurality of time segments (424A, 424B), wherein the first time period is defined by a parameter received via a grant message from the first receiving node in response to a request by the first transmitting node to transmit the data; monitoring for control information from said first receiving node and other neighboring nodes during at least one time interval temporally located between the time segments (424A, 424B) in order to determine if conditions on the communication medium have changed for the scheduled transmit time period; and adjusting, based on the control information, at least one transmission parameter for the transmission of the data during at least one of the time segments. transmitting data over a communication medium, from a first transmitting node to a first receiving node, during a plurality of time segments (424A, 424B) defined within a first time period, wherein the first time period comprises a scheduled transmit time period including said plurality of time segments (424A, 424B), wherein the first time period is defined by a parameter received via a grant message from the first receiving node in response to a request by the first transmitting node to transmit the data; monitoring for control information from said first receiving node and other neighboring nodes during at least one time interval temporally located between the time segments (424A, 424B) in order to determine if conditions on the communication medium have changed for the scheduled transmit time period; and adjusting, based on the control information, at least one transmission parameter for the transmission of the data during at least one of the time segments.
A bus bar system having at least one bus bar which is accommodated in a contact protection housing protected against contact and accessible via contacting passages for electrical devices and/or device adapters, the contact-protection housing having a lower part and an upper part which is detachably fixed on the lower part and between which the at least one bus bar is held, characterized in that the upper part has, on its side facing the lower part, a plurality of plug-in receptacles extending from the latter into the lower part, and the lower part has at least one slider with at least one latching pawl which can be adjusted between a locking position, in which the at least one latching pawl engages in the plug-in receptacle, and a release position, in which the at least one latching pawl is positioned in front of the plug-in receptacle, wherein the lower part comprises, for each bus bar, a hook element which pre-fixes the respective bus bar to the lower part.
A medical device comprising: a first controller that has a control section responsible for sequence control of a device and is for controlling the medical device; a second controller that monitors the occurrence of a failure in the first controller and that operates if a failure occurs in the first controller, characterized in that the medical device further comprises notification means that makes a notification output based on exclusive OR between notification outputs of the first controller and the second controller, wherein the second controller, after acquiring the notification output of the first controller, inverts its own notification output so as to output an inversion result if the notification output of the first controller is in an ON state. a first controller that has a control section responsible for sequence control of a device and is for controlling the medical device; a second controller that monitors the occurrence of a failure in the first controller and that operates if a failure occurs in the first controller, characterized in that the medical device further comprises notification means that makes a notification output based on exclusive OR between notification outputs of the first controller and the second controller, wherein the second controller, after acquiring the notification output of the first controller, inverts its own notification output so as to output an inversion result if the notification output of the first controller is in an ON state.
A wireless computing device comprising: a set of one or more radio components to transmit and receive wireless communications on the wireless computing device; and processing and memory resources that, in combination or individually, provide logic and programming, wherein the logic and programming comprises: multiple wireless applications (112, 114, 116) that are operable by a user of the wireless computing device; a radio object that interfaces the multiple wireless applications (112, 114, 116) with the set of one or more radio components; an arbitration component that arbitrates at least one of (i) requests made concurrently by two or more of the wireless applications (112, 114, 116) to the radio object for access to one or more of the radio components in the set, or (ii) responses from the radio object to requests made by each of the wireless applications (112, 114, 116); and wherein the arbitration component arbitrates requests from the wireless applications (112, 114, 116) to the radio object using messages and/or arbitrates responses from the radio object to the wireless applications (112, 114, 116) using messages. a set of one or more radio components to transmit and receive wireless communications on the wireless computing device; and processing and memory resources that, in combination or individually, provide logic and programming, wherein the logic and programming comprises: multiple wireless applications (112, 114, 116) that are operable by a user of the wireless computing device; a radio object that interfaces the multiple wireless applications (112, 114, 116) with the set of one or more radio components; an arbitration component that arbitrates at least one of (i) requests made concurrently by two or more of the wireless applications (112, 114, 116) to the radio object for access to one or more of the radio components in the set, or (ii) responses from the radio object to requests made by each of the wireless applications (112, 114, 116); and wherein the arbitration component arbitrates requests from the wireless applications (112, 114, 116) to the radio object using messages and/or arbitrates responses from the radio object to the wireless applications (112, 114, 116) using messages. multiple wireless applications (112, 114, 116) that are operable by a user of the wireless computing device; a radio object that interfaces the multiple wireless applications (112, 114, 116) with the set of one or more radio components; an arbitration component that arbitrates at least one of (i) requests made concurrently by two or more of the wireless applications (112, 114, 116) to the radio object for access to one or more of the radio components in the set, or (ii) responses from the radio object to requests made by each of the wireless applications (112, 114, 116); and wherein the arbitration component arbitrates requests from the wireless applications (112, 114, 116) to the radio object using messages and/or arbitrates responses from the radio object to the wireless applications (112, 114, 116) using messages.
A method for indicating a channel access type, implemented by a terminal device, the method comprising: determining a channel access type for a Message 3, MSG3, according to at least one of an indication of a random access response or a configuration sent by a network side through Radio Resource Control, RRC, signaling, wherein the channel access type for the MSG3 is contained in a subheader of the random access response; or, the channel access type for the MSG3 is contained in a payload of the random access response and indicated through a reserved bit of the payload of the random access response. determining a channel access type for a Message 3, MSG3, according to at least one of an indication of a random access response or a configuration sent by a network side through Radio Resource Control, RRC, signaling, wherein the channel access type for the MSG3 is contained in a subheader of the random access response; or, the channel access type for the MSG3 is contained in a payload of the random access response and indicated through a reserved bit of the payload of the random access response.
Protective housing for batteries, accumulators and electric cells with a body which forms at least an inner chamber for accommodating a battery, an accumulator and/or electric cells, wherein this inner chamber extends over at least one surface forming at least one wall of the housing and forms a cavity formed with an object received therein, in which water (H2O) is present, and this cavity presents an inlet duct for filling the chamber with water, and the inner chamber has at least one connection via an electrical cable to the outside of the housing and at least one inner surface of the housing forming the cavity in which the thermally conductive water is present, wherein the protective housing is characterized in that the cavity having at least one one-way valve for relieving excess pressure.