mhurhangee/ep-ind-claims huggingface dataset:
An eye surgical cutting tool, comprising a tubular outer part with a closed distal end and an opening in the tube of the outer part, near the closed end, the opening being bounded by an edge profile formed in the tube which has a distal cutting edge and an opposite proximal cutting edge, furthermore comprising a tubular inner part which has an open distal end and is arranged in the tubular outer part so as to be movable in an axial direction, additionally comprising suction means to have, during use of the cutting tool, ocular tissue extend through the opening of the outer part into the interior of the outer part and to convey severed tissue via the interior of the inner part to a proximal end of the inner part, wherein the tube of the inner part also has an opening, near the open end and bounded by an edge profile formed in the tube with a distal cutting edge and an opposite proximal edge, such that the opening of the outer part and the opening of the inner part are mutually aligned in a circumferential direction around the outer part and in an aligned axial position of the inner part with respect to the outer part, and wherein the axial position of the distal cutting edge of the inner part as a function of the circumferential direction of the inner part initially proceeds towards the proximal end and then proceeds back to the distal end, characterized in that the open distal end of the inner part forms a distal cutting edge with a cutting face which leans away from the proximal end of the inner part and that the distal cutting edge of the edge profile formed in the inner part leans over towards the proximal end of the inner part and that the cutting face of the open distal end of the inner part is tilted the other way than is the proximal cutting face formed by the distal cutting edge of the edge profile formed in the inner part.
An optical assembly, comprising: - a barrel defining a cavity having a center axis, the barrel comprising an inner wall provided with a first set of barrel threads and a second set of barrel threads; - a sleeve inserted in the cavity and having a forward end and a rearward end, the forward end comprising an outer wall provided with a set of sleeve threads engaging the first set of barrel threads so as to allow a longitudinal displacement of the sleeve within the cavity upon rotation of the sleeve, the rearward end of the sleeve comprising a peripheral transversal surface having a spatial profile; - at least one optical element mounted within the sleeve and centered with respect thereto; and - a retaining ring affixed to the barrel through a set of ring threads engaging the second set of barrel threads, the retaining ring having an abutment engaging the peripheral transversal surface of the sleeve, the ring threads having a rearward thread face, an orientation of the rearward thread face of the ring threads and the spatial profile of the peripheral transversal surface being selected to provide a centering of the sleeve with respect to the center axis of the cavity throughout the longitudinal displacement of the sleeve within the cavity. - a barrel defining a cavity having a center axis, the barrel comprising an inner wall provided with a first set of barrel threads and a second set of barrel threads; - a sleeve inserted in the cavity and having a forward end and a rearward end, the forward end comprising an outer wall provided with a set of sleeve threads engaging the first set of barrel threads so as to allow a longitudinal displacement of the sleeve within the cavity upon rotation of the sleeve, the rearward end of the sleeve comprising a peripheral transversal surface having a spatial profile; - at least one optical element mounted within the sleeve and centered with respect thereto; and - a retaining ring affixed to the barrel through a set of ring threads engaging the second set of barrel threads, the retaining ring having an abutment engaging the peripheral transversal surface of the sleeve, the ring threads having a rearward thread face, an orientation of the rearward thread face of the ring threads and the spatial profile of the peripheral transversal surface being selected to provide a centering of the sleeve with respect to the center axis of the cavity throughout the longitudinal displacement of the sleeve within the cavity.
A process for preparing a low sugar, high fiber beverage comprising the step of contacting natural juice or a ready-to-drink product containing sugar or a composition comprising same with at least one type of microbial cells, wherein the microbial cells are dead microbial cells, the dead microbial cells are active in reducing the sugar content of the natural juice or ready-to-drink product and in converting mono- or disaccharides to at least one oligosaccharide and/or polysaccharide, thereby obtaining a processed juice beverage or ready-to-drink product with reduced sugar content and elevated content of at least one oligosaccharide and/or polysaccharide compared to the starting natural juice or a ready-to-drink product.
An aerosol nozzle, comprising a nozzle lower part that fits with a plurality of stems protruding from an aerosol container, and a nozzle upper part that fits with the nozzle lower part, wherein the nozzle lower part includes stem fitting parts that fit with the plurality of stems respectively, an upper abutment surface, and stem-communicated passages that open in the upper abutment surface and extend through the nozzle lower part from the stem fitting parts, the nozzle upper part includes a lower abutment surface, and a mixing passage that opens in the lower abutment surface and extends upward, at least one of the upper abutment surface and the lower abutment surface has a converging passage that connects openings of a plurality of the stem-communicated passages, the converging passage forms a plurality of converging grooves that connect openings of the stem-communicated passages and an opening of the mixing passage when the nozzle lower part and the nozzle upper part are fitted with each other, characterized in that the cross-sectional area of each of the plurality of converging grooves is reduced toward the mixing passage so that the flow speed of the passing contents is increased, or the depth of each of the plurality of converging grooves is reduced. the nozzle lower part includes stem fitting parts that fit with the plurality of stems respectively, an upper abutment surface, and stem-communicated passages that open in the upper abutment surface and extend through the nozzle lower part from the stem fitting parts, the nozzle upper part includes a lower abutment surface, and a mixing passage that opens in the lower abutment surface and extends upward, at least one of the upper abutment surface and the lower abutment surface has a converging passage that connects openings of a plurality of the stem-communicated passages, the converging passage forms a plurality of converging grooves that connect openings of the stem-communicated passages and an opening of the mixing passage when the nozzle lower part and the nozzle upper part are fitted with each other,
A method in a wireless device for reporting channel state information, CSI, for one or more CSI processes, each CSI process corresponding to a reference signal resource and an interference measurement resource, wherein the reference signal resource comprises a set of resource elements in which one or more reference signals corresponding to a desired signal are received, and wherein the interference measurement resource comprises a set of resource elements in which one or more signals assumed to be interfering with the desired signal are received, the method characterized in, for each of the one or more CSI processes: - obtaining an adjustment value associated with the CSI process; - determining an adjusted effective channel, by applying the adjustment value to an effective channel estimated based on one or more reference signals received in the reference signal resource; - determining channel state information based on the adjusted effective channel, and on interference estimated based on the interference measurement resource; and - transmitting the channel state information to a network node. - obtaining an adjustment value associated with the CSI process; - determining an adjusted effective channel, by applying the adjustment value to an effective channel estimated based on one or more reference signals received in the reference signal resource; - determining channel state information based on the adjusted effective channel, and on interference estimated based on the interference measurement resource; and - transmitting the channel state information to a network node.
An applicator instrument (100, 600, 700, 800, 1100, 1200, 1400, 1500) having a reconfigurable handle (110, 810) for dispensing surgical fasteners (176, 220, 376, 576, 676, 776) comprising: a housing (108, 608, 708, 808); an elongated shaft (102, 802, 902, 1002, 1102, 1202) extending from a distal end of said housing (108, 608, 708, 808); a handle (110, 810) coupled with a proximal end of said housing (108, 608, 708, 808); a trigger (112, 1412, 1512) coupled with said handle (110, 810); a firing system disposed within said housing (108, 608, 708, 808), said firing system including an energy storing assembly; a gear train (124, 1424, 1524) disposed within said handle (110, 810) and coupled with said trigger (112, 1412, 1512), wherein said trigger (112, 1412, 1512) is squeezable for storing energy in said energy storing assembly; characterised in that the applicator instrument comprises a handle reconfiguration actuator having a first position for locking said handle (110, 810) in place relative to said housing (108, 608, 708, 808) and a second position for enabling said handle (110, 810) to rotate relative to said housing (108, 608, 708, 808) between a pistol configuration and an in-line configuration, wherein an in-line configuration is defined as the configuration in which a longitudinal axis of said handle (110, 810) is generally parallel to a longitudinal axis of said elongate shaft. a housing (108, 608, 708, 808); an elongated shaft (102, 802, 902, 1002, 1102, 1202) extending from a distal end of said housing (108, 608, 708, 808); a handle (110, 810) coupled with a proximal end of said housing (108, 608, 708, 808); a trigger (112, 1412, 1512) coupled with said handle (110, 810); a firing system disposed within said housing (108, 608, 708, 808), said firing system including an energy storing assembly; a gear train (124, 1424, 1524) disposed within said handle (110, 810) and coupled with said trigger (112, 1412, 1512), wherein said trigger (112, 1412, 1512) is squeezable for storing energy in said energy storing assembly; characterised in that the applicator instrument comprises a handle reconfiguration actuator having a first position for locking said handle (110, 810) in place relative to said housing (108, 608, 708, 808) and a second position for enabling said handle (110, 810) to rotate relative to said housing (108, 608, 708, 808) between a pistol configuration and an in-line configuration, wherein an in-line configuration is defined as the configuration in which a longitudinal axis of said handle (110, 810) is generally parallel to a longitudinal axis of said elongate shaft.
Process for enzymatic hydrolysis by sequential feeding in which, under stirring, at least one pretreated lignocellulosic substrate is brought into contact with water and with enzymes in a reactor, said process being characterized in that the sequential addition to the reactor of the pretreated lignocellulosic substrate is carried out and increasingly spaced out over time, so as to obtain a predetermined final dry matter content of between 18% and 30% by weight.
A method comprising: dividing a Time Division Multiple Access, TDMA, structure into a plurality of first time slots and a plurality of second time slots, the first and second time slots allocated to communications using first and second protocols associated with an industrial process control system, respectively, wherein the TDMA structure comprises a superframe having multiple frames, each frame including multiple time slots, each frame containing only one of the first time slots or the second time slots; routing, by a protocol routing layer, each of a plurality of data packets to a first protocol stack associated with the first protocol or a second protocol stack associated with the second protocol; transmitting, by a physical layer, a first subset of the data packets to at least one first wireless device (108a-108c, 110a-110b, 112a-112e) using the first protocol during the first time slots and not during the second time slots; and transmitting, by the physical layer, a second subset of the data packets to at least one second wireless device (108a-108c, 110a-110b, 112a-112e) using the second protocol during the second time slots and not during the first time slots. dividing a Time Division Multiple Access, TDMA, structure into a plurality of first time slots and a plurality of second time slots, the first and second time slots allocated to communications using first and second protocols associated with an industrial process control system, respectively, wherein the TDMA structure comprises a superframe having multiple frames, each frame including multiple time slots, each frame containing only one of the first time slots or the second time slots; routing, by a protocol routing layer, each of a plurality of data packets to a first protocol stack associated with the first protocol or a second protocol stack associated with the second protocol; transmitting, by a physical layer, a first subset of the data packets to at least one first wireless device (108a-108c, 110a-110b, 112a-112e) using the first protocol during the first time slots and not during the second time slots; and transmitting, by the physical layer, a second subset of the data packets to at least one second wireless device (108a-108c, 110a-110b, 112a-112e) using the second protocol during the second time slots and not during the first time slots.
A computing device configured to implement attack surface reduction, ASR, cluster adaptation for a group of machine endpoints utilized by users, each of the endpoints performing code execution that supports a plurality of different features, comprising: one or more processors; and at least one hardware-based computer-readable memory having computer-executable instructions stored thereon which, when executed by the one or more processors, cause the computing device to: provide a set of ASR rules that are applicable to the endpoints to perform clustering; track a history of exclusion events describing features that are excluded on one or more of the endpoints; receive user-initiated events describing requests from one or more of the users for exceptions to features that are excluded on one or more of the endpoints; and apply (2020_) one or more ASR rules from the set based on the tracked history of exclusion events and user-initiated events to perform ASR clustering of the endpoints in which clustered endpoints share common characteristics. one or more processors; and at least one hardware-based computer-readable memory having computer-executable instructions stored thereon which, when executed by the one or more processors, cause the computing device to: provide a set of ASR rules that are applicable to the endpoints to perform clustering; track a history of exclusion events describing features that are excluded on one or more of the endpoints; receive user-initiated events describing requests from one or more of the users for exceptions to features that are excluded on one or more of the endpoints; and apply (2020_) one or more ASR rules from the set based on the tracked history of exclusion events and user-initiated events to perform ASR clustering of the endpoints in which clustered endpoints share common characteristics. provide a set of ASR rules that are applicable to the endpoints to perform clustering; track a history of exclusion events describing features that are excluded on one or more of the endpoints; receive user-initiated events describing requests from one or more of the users for exceptions to features that are excluded on one or more of the endpoints; and apply (2020_) one or more ASR rules from the set based on the tracked history of exclusion events and user-initiated events to perform ASR clustering of the endpoints in which clustered endpoints share common characteristics.
A pneumatic tire comprising a tread portion provided with a left-right asymmetric tread pattern comprising three circumferentially continuously extending main grooves which are a central main groove whose widthwise center line is disposed in a tread center region (Yc) having a width of 20 % of the tread width TW and centered on the tire equator (Co), an outboard shoulder main groove, and an inboard shoulder main groove, wherein the width (Wgo) of the outboard shoulder main groove is larger than the width (Wgc) of the central main groove and the width (Wgi) of the inboard shoulder main groove, the central main groove connects to a groove and/or a sipe, the inboard shoulder main groove connects to a groove and/or a sipe, the outboard shoulder main groove connects to neither a groove nor a sipe, characterized in that an inboard sloping surface and an outboard sloping surface are formed on both sides of the outboard shoulder main groove, respectively, so that the inboard sloping surface and the outboard sloping surface extend from the opposite groove-sidewalls of the outboard shoulder main groove toward both sides of the outboard shoulder main groove and merge into the tread surface, the width (owi) of the inboard sloping surface is more than the depth (Ohi) of the inboard sloping surface measured radially at the groove-sidewall from the tread surface, and the width (Owo) of the outboard sloping surface is more than the depth (Oho) of the outboard sloping surface measured radially at the groove-sidewall from the tread surface.
A compatibility promotion method executable by a processor of a HDMI intermediate device for high definition multimedia interface, HDMI, the HDMI intermediate device having a first HDMI interface for connecting to an input source device and a plurality of second HDMI interfaces for connecting to a plurality of display devices, wherein the method comprises the steps of: S 1: reading the extended display identification data, EDID, from all of the display devices connected to the HDMI intermediate device, taking the EDID of each display device as an EDID to be analysed, and processing steps S2 to S4 in the order of either S2, S3, S4 or S2, S4, S3 for each EDID to be analysed, thereafter executing step S5; S2: defining a situation 1 as the EDID to be analysed comprising a non-standard timing; defining a situation 2 as the bandwidth of the resolution supported by the display device corresponding to the EDID to be analysed being greater than a maximum bandwidth of the HDMI intermediate device; and determining the specific situation of the EDID to be analysed; S3: if the EDID to be analysed meets the situation 1, modifying the timing of the EDID to be analysed into an HDMI standard timing; S4: if the EDID to be analysed meets the situation 2, acquiring a specified colour depth sampling format supported by all the display devices; and after modifying an actual colour depth sampling format of the EDID to be analysed into the specified colour depth sampling format modifying the colour format with a resolution greater than the maximum bandwidth of the HDMI intermediate device into YCbCr 4:2:0; S5: transmitting an EDID having been processed according to steps S3 and S4 to the input source device. S 1: reading the extended display identification data, EDID, from all of the display devices connected to the HDMI intermediate device, taking the EDID of each display device as an EDID to be analysed, and processing steps S2 to S4 in the order of either S2, S3, S4 or S2, S4, S3 for each EDID to be analysed, thereafter executing step S5; S2: defining a situation 1 as the EDID to be analysed comprising a non-standard timing; defining a situation 2 as the bandwidth of the resolution supported by the display device corresponding to the EDID to be analysed being greater than a maximum bandwidth of the HDMI intermediate device; and determining the specific situation of the EDID to be analysed; S3: if the EDID to be analysed meets the situation 1, modifying the timing of the EDID to be analysed into an HDMI standard timing; S4: if the EDID to be analysed meets the situation 2, acquiring a specified colour depth sampling format supported by all the display devices; and after modifying an actual colour depth sampling format of the EDID to be analysed into the specified colour depth sampling format modifying the colour format with a resolution greater than the maximum bandwidth of the HDMI intermediate device into YCbCr 4:2:0; S5: transmitting an EDID having been processed according to steps S3 and S4 to the input source device.
Leg support fitting for reversibly altering a leg support of a piece of seating and/or lying furniture from a use position to a non-use position and back, comprising a shifting unit, having a slide displaceable in translation in a frame, and comprising a pivot unit, having a first pivot arm, it being possible for the leg support to be held at a first leg support end of the first pivot arm, and the first pivot arm being pivotably connected, at a pivot arm end opposite the leg support, to the slide of the shifting unit via a first pivot joint rotatable about a first pivot axle, characterised in that, in the first pivot arm end of the first pivot arm, a lever protrusion is formed, which overhangs at least in portions the first pivot axle of the first pivot joint at a rear face opposite the leg support and at an upper face opposite a base, and which has a contact face formed as a ramp and an auxiliary contact face, opposite the contact face and overhanging at least in portions the first pivot axle of the first pivot joint at the upper face, the auxiliary contact face and a face facing the leg support forming a construction in the first pivot arm end of the first pivot arm, and the pivot arms (22, 23) rotating about the pivot joints (14, 15), to bring the leg support from the non-use position to the use position, by way of of the slide of the shifting unit being displaced in the frame towards a front face in such a way that the contact face of the lever protrusion of the first pivot arm is displaced against a deflection element, which is held stationary, of the frame and the first pivot axle is displaced in front of the deflection element towards the front face, in that a weight of the pivot unit is braced on the deflection unit of the frame, and in that the auxiliary contact face is held spaced apart from the deflection unit of the frame.