mhurhangee/ep-ind-claims huggingface dataset:
A sensor system (10, 100) comprising: a magnetic field generator to generate an applied magnetic field; a cell system (12, 102) comprising a sensor cell (14, 106), and comprising a pump laser (16, 112) and a polarizer configured to generate a circularly polarized pump beam at an offset angle with respect to the applied magnetic field to polarize alkali metal particles (18, 108) enclosed within the sensor cell (14, 106); a detection system (20, 126) comprising a probe laser (22, 128) configured to generate a probe beam, the detection system (20, 126) being configured to calculate at least one measurable parameter based on characteristics of the probe beam passing through the sensor cell (14, 106) resulting from precession of the polarized alkali metal particles (18, 108) in response to the applied magnetic field; an AC Stark shift control system (26, 104) configured to frequency-modulate the pump beam and to control a center frequency of the frequency-modulated pump beam between transition frequencies associated with two independent ground states of the alkali metal particles (18, 108) based on the characteristics of the probe beam passing through the sensor cell (14, 106) to substantially stabilize and mitigate the effects of AC Stark shift induced by the pump beam on the at least one measurable parameter; and a frequency reference (28, 120) configured to generate a stable dither frequency signal that is provided to the stabilization system (30, 122) to modulate the frequency of the pump beam and to demodulate a frequency of Faraday rotation of the probe beam. a magnetic field generator to generate an applied magnetic field; a cell system (12, 102) comprising a sensor cell (14, 106), and comprising a pump laser (16, 112) and a polarizer configured to generate a circularly polarized pump beam at an offset angle with respect to the applied magnetic field to polarize alkali metal particles (18, 108) enclosed within the sensor cell (14, 106); a detection system (20, 126) comprising a probe laser (22, 128) configured to generate a probe beam, the detection system (20, 126) being configured to calculate at least one measurable parameter based on characteristics of the probe beam passing through the sensor cell (14, 106) resulting from precession of the polarized alkali metal particles (18, 108) in response to the applied magnetic field; an AC Stark shift control system (26, 104) configured to frequency-modulate the pump beam and to control a center frequency of the frequency-modulated pump beam between transition frequencies associated with two independent ground states of the alkali metal particles (18, 108) based on the characteristics of the probe beam passing through the sensor cell (14, 106) to substantially stabilize and mitigate the effects of AC Stark shift induced by the pump beam on the at least one measurable parameter; and a frequency reference (28, 120) configured to generate a stable dither frequency signal that is provided to the stabilization system (30, 122) to modulate the frequency of the pump beam and to demodulate a frequency of Faraday rotation of the probe beam.
A method for measurement of neighbouring cells in a cellular mobile telecommunication network wherein a network side of the cellular mobile telecommunication network defines a measurement configuration including a list of neighbouring cells to be measured by a user equipment and which is sent by the network side to the user equipment in preparation of a cell handover, characterized in that the network side adds at least one group of neighbouring cells to the list included in the measurement configuration dependent on an individual measurement processing priority of the group of neighbouring cells defining the order of priority in which the groups of neighbouring cells are included into the list included in the measurment configuration and dependent on a predefined waiting time wherein a group of neighbouring cells is defined by a certain combination of the cell frequency and the supported cell radio access technology and wherein a measurement processing timer starts at the network side after said addition of the at least one group of neighbouring cells to the list included in the measurement configuration and expires after the predefined waiting time wherein a new group of neighbouring cells can only be added to the list included in the measurement configuration after the timer has already expired and wherein a measurement processing time is individually configured for a group of neighbouring cells by the network side and the predefined waiting time is set to the individual measurement processing time of the group of neighbouring cells which has been most recently added to the list included in the measurement configuration.
Unit comprising a holding element and a fastening device for fastening a freely suspended WC on a fixing bolt provided on a wall, the WC comprising a rear wall which defines a fixing plane and is adapted to abut against the wall, the fastening device comprising a holder that can be fixed to the rear wall and is adapted to receive the fastening bolt in the installed position, a clamping element as well as a screw element for fixing the holder to the fastening bolt in the installation position, wherein the clamping element designed as a clamping wedge is connectible to the fastening bolt, wherein the holder is designed for displaceably receiving and guiding the clamping wedge, wherein a linear transmission is formed between the holder and clamping wedge, which is actuated via the screw element extending transversely to the longitudinal axis of the fastening bolt, wherein the unit comprises a holding element which can be connected to the fastening bolt, wherein the clamping wedge and the holding element have sliding surfaces (8e, 12a) corresponding to one another, characterized in that the holder has a passage for passing through the fastening bolt and the holding element connected to the fastening bolt for pre-fixing the WC, wherein for pre-fixing the WC with the holder fixed on the inside of its rear wall can be pushed onto the fixing bolt with the holding element connected thereto until the mutually corresponding sliding surfaces (8e, 12a) of the holding element and of the clamping part abut one another, wherein, after the pre-fixing, the clamping wedge is adjustable via the screw element to the holder fixed stationarily to the WC, causing a movement of the WC through the sliding surfaces (8e, 12a) sliding on one another between the holding element and the clamping wedge.
A vehicle body front section structure, wherein a floor tunnel projecting into a vehicle interior on an underfloor of the vehicle is formed in a vehicle longitudinal direction, characterized in that, a first vehicle body front section reinforcing member covers, from an outside of the vehicle, a whole of a floor tunnel front end part being a vehicle front of the floor tunnel, from a vehicle upper end to a root of each floor tunnel member provided in the vehicle longitudinal direction along a front end ridge line part, a lower end root of each front side member is connected to a dash panel, and the each front side member extends forward from the lower end root, and wherein a second vehicle body front section reinforcing member couples the first vehicle body front section reinforcing member to the lower end root of the front side member. wherein a floor tunnel projecting into a vehicle interior on an underfloor of the vehicle is formed in a vehicle longitudinal direction, characterized in that, a first vehicle body front section reinforcing member covers, from an outside of the vehicle, a whole of a floor tunnel front end part being a vehicle front of the floor tunnel, from a vehicle upper end to a root of each floor tunnel member provided in the vehicle longitudinal direction along a front end ridge line part, a lower end root of each front side member is connected to a dash panel, and the each front side member extends forward from the lower end root, and wherein a second vehicle body front section reinforcing member couples the first vehicle body front section reinforcing member to the lower end root of the front side member.
A method for manufacturing bullet ammunition casings, said casing comprising at least one tapered main portion constituting a jacket (5, 5a), a shoulder, a mouth end (5d, 5e) and a cup, method in which the jacket, the shoulder and the end piece are formed from at least one thin strip by shaping said strip(s) on a die reproducing the taper and the shoulder and the mouth characteristic of the casing, characterized in that the strip before shaping has the shape of a tube and that a plurality of dies are slid and interlocked into each other in said tube before the shaping.
A pharmaceutical composition comprising an improved Cell-Permeable (iCP)-SOCS3 recombinant protein as an active ingredient and a pharmaceutically acceptable carrier, for use in the treatment, prevention, or delaying the onset of, solid tumor, wherein the iCP-SOCS3 recombinant protein comprises an advanced macromolecule transduction domain (aMTD) and a SOCS3 protein, and wherein the aMTD has an amino acid sequence of SEQ ID NO: 122.
An insertion kit for an endosseous single-tooth implant for a fixed tooth replacement, with a substantially cylindrical main body, which can be inserted into a bore introduced into a jaw bone, with an annular recess with a positive-locking section and with a bore arranged coaxially relative to the annular recess, and which comprises apically a threading for the securing of a retaining screw; a screw-in base, which can be inserted into the annular recess of the main body, with a positive-locking section, wherein the screw-in base comprises a bore, which penetrates through the screw-in base coaxially relative to the annular recess, for receiving a retaining screw; a retaining screw with an apical outer threading and a coronal screw head, wherein the retaining screw can be inserted in the bore of the screw-in base and screwed into the threading of the main body; a screw-in head, which can be engaged with the screw-in base, and which comprises a bore arranged coaxially relative to the annular recess and a projection at the coronal end thereof, preferably in the form of an outer polygon, for a screw-in tool, and a retaining shaft, which can be inserted in the bore of the screw-in head and which, at one end, can be fixed to the retaining screw and, at the other end, comprises a projection for a dental angle piece, wherein the positive-locking section of the main body and the positive-locking section of the screw-in base comprise mutually complementary screw-in elements (30; 48) which, during the insertion of the screw-in base in the main body, are made to engage with one another, and wherein the screw-in base and the main body, in the engagement position of the mutually complementary screw-in elements, are secured in a rotationally fixed manner with respect to one another, wherein the mutually complementary screw-in elements on main body and screw-in base are designed as respective shape-complementary screw-in element pairs selected from inner edge-outer edge, pins-recesses and Morse taper-Morse cone pairs, wherein the annular recess of the main body includes an apical guide section, the positive-locking section arranged coronally relative to the apical guide section, and a coronal end section arranged coronally relative to the positive-locking section, and wherein the screw-in base /the screw-in body includes an apical guide section (44/100), a positive-locking section (46/102) and a coronal end section (52/104), which correspond to the corresponding sections of the main body.
A composition for use in a method of disrupting a biofilm, the method comprising applying to a surface having a biofilm the composition, wherein the composition comprises succinic acid, aconitic acid, and a carrier, said succinic acid and aconitic acid being present in the composition in a ratio of succinic acid to aconitic acid of from 0.9:1 to 14:1.
A one-piece manifold assembly for a mold-tool system, comprising: a one piece-manifold assembly formed of a singly body and having a first outer surface and a second outer surface, the first outer surface and the second outer surface being substantially planar and parallel to each other; a plurality of inlets, each inlet being defined at the first outer surface of the one-piece manifold assembly; a plurality of outlets, each outlet being defined at the second outer surface of the one-piece manifold assembly 102) and configured to feed a separate mold cavity, wherein the ratio of outlets to inlets is at least 2:1; a plurality of melt channels, wherein each melt channel extends between a single inlet and at least two outlets, each outlet being connected to the melt channel by an associated melt channel section, such that each inlet is in fluid communication with at least a first melt channel section associated with one outlet, and a second melt channel selection associated with another outlet, wherein the first melt channel section has a first length and the second melt channel section has a second length, characterised in that the first length is substantially equal to the second length, and a bifurcation where the first melt channel section associated with an outlet and the second melt channel section associated with another outlet diverge, wherein the bifurcation is positioned at a location in which a distance between the inlet and the bifurcation is at least 60% of a length of the melt channel. a one piece-manifold assembly formed of a singly body and having a first outer surface and a second outer surface, the first outer surface and the second outer surface being substantially planar and parallel to each other; a plurality of inlets, each inlet being defined at the first outer surface of the one-piece manifold assembly; a plurality of outlets, each outlet being defined at the second outer surface of the one-piece manifold assembly 102) and configured to feed a separate mold cavity, wherein the ratio of outlets to inlets is at least 2:1; a plurality of melt channels, wherein each melt channel extends between a single inlet and at least two outlets, each outlet being connected to the melt channel by an associated melt channel section, such that each inlet is in fluid communication with at least a first melt channel section associated with one outlet, and a second melt channel selection associated with another outlet, wherein the first melt channel section has a first length and the second melt channel section has a second length, characterised in that the first length is substantially equal to the second length, and a bifurcation where the first melt channel section associated with an outlet and the second melt channel section associated with another outlet diverge, wherein the bifurcation is positioned at a location in which a distance between the inlet and the bifurcation is at least 60% of a length of the melt channel.
A method for adjusting relative values of heat conductivities of a heat insulating space and a cooling portion of a hollow poppet valve in which a head portion of the valve is formed integrally with one end side of a stem portion; the stem portion is formed with a diametrically small stem-side hollow portion (S2, S2', S2"), while the head portion is formed with a diametrically large hollow portion (S1, S1', S1") separated from the stem-side hollow portion (S2, S2', S2") by a partition,,,, located at a position that corresponds to a fillet portion of the valve where the outer diameter of the valve gradually increases; the head-side hollow portion (S1,S1',S1) includes a heat insulating space that contains a gas or a material that has a lower heat conductivity than a valve-forming metal so as to reduce the heat conductivity of the valve, while the stem-side hollow portion (S2, S2',S2") includes a cooling portion that contains a coolant to improve heat conductivity of the valve, wherein the method is characterized in that a position in the up-down direction and a length in the up-down direction of the partition,,,, is set to determine volumes of the hollow portions (S1, S1', S1", S2, S2', S2"), whereby adjusting the relative values of the heat conductivities of the heat insulating space and the cooling portion. a head portion of the valve is formed integrally with one end side of a stem portion; the stem portion is formed with a diametrically small stem-side hollow portion (S2, S2', S2"), while the head portion is formed with a diametrically large hollow portion (S1, S1', S1") separated from the stem-side hollow portion (S2, S2', S2") by a partition,,,, located at a position that corresponds to a fillet portion of the valve where the outer diameter of the valve gradually increases; the head-side hollow portion (S1,S1',S1) includes a heat insulating space that contains a gas or a material that has a lower heat conductivity than a valve-forming metal so as to reduce the heat conductivity of the valve, while the stem-side hollow portion (S2, S2',S2") includes a cooling portion that contains a coolant to improve heat conductivity of the valve, wherein the method is characterized in that a position in the up-down direction and a length in the up-down direction of the partition,,,, is set to determine volumes of the hollow portions (S1, S1', S1", S2, S2', S2"), whereby adjusting the relative values of the heat conductivities of the heat insulating space and the cooling portion.
Method for operation of a shearing device with a shearing cylinder rotating about a longitudinal axis and shearing spirals mounted on the shearing cylinder, a lower blade support supporting a lower blade extending in parallel to the longitudinal axis, wherein a condition of the shearing device is measured, and wherein a shearing point on each shearing spiral in which a material to be sheared that is guided between shearing spiral and lower blade is sheared tangentially to the shearing cylinder moves continuously from an infeed end to an outfeed end of the lower blade, characterized in that the condition is measured between the lower blade and the lower blade support.
A terminal device, comprising at least two folding portions (100, 200, 300), a rotational shaft, and a telescopic device, wherein each of the folding portions (100, 200, 300) comprises a housing (110, 210, 310) and a display screen (120, 220, 320) arranged on the housing (110, 210, 310), each housing (110, 210, 310) is provided with the rotational shaft, two adjacent folding portions are connected to each other by the telescopic device, two ends of the telescopic device are respectively connected to the rotational shafts on the two adjacent folding portions, the terminal device has a folded state and an extended state, in the folded state, two adjacent folding portions are folded, and in the extended state, display screens of the two adjacent folding portions abut on each other and are coplanar; characterized in that each housing (110, 210, 310) is provided with a first positioning groove (111, 211, 311), in the folded state, the first positioning grooves (111, 211, 311) of two adjacent housings (110, 210, 310) are connected and form a first accommodating space, the rotational shaft is configured to move in coordination with the housing (110, 210, 310) of the rotational shaft in an axial direction of the rotational shaft, and the telescopic device can move into or move out of the first accommodating space along with the movement of the rotational shaft.
A method for displaying information, comprising: acquiring state information of a target message in an instant messaging IM conversation, wherein the target message comprises a message sent by a first user and/or a second user after a target mail has been shared in the IM conversation; and the target mail is a mail shared by the first user with the second user in the IM conversation, or a mail shared by the second user with the first user in the IM conversation, wherein the state information of the target message is configured to characterize a state of the target message in the IM conversation; and displaying the state information on an interface of an email client of the first user and/or an interface of an email client of the second user, based on the state information of the target message, wherein after displaying the state information on the interface of the email client of the first user, the method further comprises: displaying an IM conversation interface corresponding to the IM conversation, in response to a detection of a message viewing operation triggered by the first user for the state information of the target message on the interface of the email client of the first user, wherein the IM conversation interface comprises the target message sent by the second user. acquiring state information of a target message in an instant messaging IM conversation, wherein the target message comprises a message sent by a first user and/or a second user after a target mail has been shared in the IM conversation; and the target mail is a mail shared by the first user with the second user in the IM conversation, or a mail shared by the second user with the first user in the IM conversation, wherein the state information of the target message is configured to characterize a state of the target message in the IM conversation; and displaying the state information on an interface of an email client of the first user and/or an interface of an email client of the second user, based on the state information of the target message, wherein after displaying the state information on the interface of the email client of the first user, the method further comprises: displaying an IM conversation interface corresponding to the IM conversation, in response to a detection of a message viewing operation triggered by the first user for the state information of the target message on the interface of the email client of the first user, wherein the IM conversation interface comprises the target message sent by the second user.
A compound of Formula or a pharmaceutically acceptable salt thereof, wherein: A is O, NH or N(COCH 3); R 1 is (R 4)CONH- or R 2 is alkyl, (CO 2 (R 5))alkyl, or (CON(R 6)(R 7))alkyl; R 3 is cycloalkyl, tetrahydropyranyl, or Ar 1, and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, haloalkoxy, CO 2 R 5, and (R 6)(R 7)N; R 4 is alkyl, cycloalkyl, bicyclo[2.2.1-2]alkyl, or Ar 2, and is substituted with 0-5 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, haloalkoxy, and CO 2 R 5; R 5 is hydrogen or alkyl; R 6 is hydrogen, alkyl, alkylcarbonyl, or phenyl; R 7 is hydrogen or alkyl; or (R 6)(R 7)N taken together is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, morpholinyl, or thiomorpholinyl dioxide, and is substituted with 0-3 substituents selected from halo, alkyl, hydroxy, and alkoxy; Ar 1 is phenyl, thiazolyl, pyridinyl, pyridazinyl, pyrimidinyl, or pyrazinyl; and Ar 2 is phenyl, biphenyl, naphthalenyl, thiazolyl, pyridinyl, pyridazinyl, pyrimidinyl, pyrazinyl, quinolinyl, isoquinolinyl, or quinoxalinyl. A is O, NH or N(COCH 3); R 1 is (R 4)CONH- or R 2 is alkyl, (CO 2 (R 5))alkyl, or (CON(R 6)(R 7))alkyl; R 3 is cycloalkyl, tetrahydropyranyl, or Ar 1, and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, haloalkoxy, CO 2 R 5, and (R 6)(R 7)N; R 4 is alkyl, cycloalkyl, bicyclo[2.2.1-2]alkyl, or Ar 2, and is substituted with 0-5 substituents selected from cyano, halo, alkyl, haloalkyl, hydroxy, alkoxy, haloalkoxy, and CO 2 R 5; R 5 is hydrogen or alkyl; R 6 is hydrogen, alkyl, alkylcarbonyl, or phenyl; R 7 is hydrogen or alkyl; or (R 6)(R 7)N taken together is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, morpholinyl, or thiomorpholinyl dioxide, and is substituted with 0-3 substituents selected from halo, alkyl, hydroxy, and alkoxy; Ar 1 is phenyl, thiazolyl, pyridinyl, pyridazinyl, pyrimidinyl, or pyrazinyl; and Ar 2 is phenyl, biphenyl, naphthalenyl, thiazolyl, pyridinyl, pyridazinyl, pyrimidinyl, pyrazinyl, quinolinyl, isoquinolinyl, or quinoxalinyl.