mhurhangee/patent-ind-claim-en huggingface dataset:
Adaptive blade for a laryngoscope , comprising: a proximal end ; a distal end ; a first chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links which are each connected in pairs in an articulated manner; a second chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links which are each connected in pairs in an articulated manner; a spacer component , wherein a first end of the spacer component is connected in an articulated manner to one of the chain links of the first chain , and wherein a second end of the spacer component is connected in an articulated manner to one of the chain links of the second chain , wherein one or more or all of the articulated connections between the chain links of the first chain , the chain links of the second chain and the spacer component comprise a form-fit hinge (38,48,78,80,81, 83,84,87;59,69,79,90,95,96,97), wherein the adaptive blade comprises a distal end piece which forms the distal end of the adaptive blade a proximal end ; a distal end ; a first chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links which are each connected in pairs in an articulated manner; a second chain connected to the proximal end and the distal end of the adaptive blade and composed of a plurality of chain links which are each connected in pairs in an articulated manner; a spacer component , wherein a first end of the spacer component is connected in an articulated manner to one of the chain links of the first chain , and wherein a second end of the spacer component is connected in an articulated manner to one of the chain links of the second chain , wherein one or more or all of the articulated connections between the chain links of the first chain , the chain links of the second chain and the spacer component comprise a form-fit hinge (38,48,78,80,81, 83,84,87;59,69,79,90,95,96,97), wherein the adaptive blade comprises a distal end piece which forms the distal end of the adaptive blade
A computer-implemented method for managing power in a computing device based on location, the computer-implemented method comprising: detecting a power-intensive task invoked on the computing device; determining a current power state of the computing device; determining a current location of the computing device, one or more potential subsequent locations of the computing device, wherein an electronic calendar of a user associated with the computing device is accessed to determine the potential subsequent locations of the computing device, an availability of an additional power source and whether a current power level of the computing device is sufficient to complete tasks that will occur before reaching a location of the additional power source; identifying one or more alternative devices for performing the power-intensive task; and taking a power-based action to manage the computing device based on the determined current location of the computing device, comprising: at least one of transitioning the current power state of the computing device to another power state, preventing transitioning of the power state of the computing device, and transitioning the power-intensive task or other loads running on the computing device to the one or more alternative devices. detecting a power-intensive task invoked on the computing device; determining a current power state of the computing device; determining a current location of the computing device, one or more potential subsequent locations of the computing device, wherein an electronic calendar of a user associated with the computing device is accessed to determine the potential subsequent locations of the computing device, an availability of an additional power source and whether a current power level of the computing device is sufficient to complete tasks that will occur before reaching a location of the additional power source; identifying one or more alternative devices for performing the power-intensive task; and taking a power-based action to manage the computing device based on the determined current location of the computing device, comprising: at least one of transitioning the current power state of the computing device to another power state, preventing transitioning of the power state of the computing device, and transitioning the power-intensive task or other loads running on the computing device to the one or more alternative devices.
A system for annuloplasty comprising an annuloplasty device comprising first and second support rings connected to form a coiled configuration in which the first and second support rings are arranged as a coil around a central axis , wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, a line attached to the first and/or second support ring, characterized by a heating element configured to be heated upon receiving a supply of energy, wherein the heating element is positionable to heat and sever the line upon the heating element receiving said energy, wherein the heating element comprises at least one aperture through which the line is arranged, and wherein the heating element is movable along the line. an annuloplasty device comprising first and second support rings connected to form a coiled configuration in which the first and second support rings are arranged as a coil around a central axis , wherein the first and second support rings are configured to be arranged on opposite sides of native heart valve leaflets of a heart valve, a line attached to the first and/or second support ring, characterized by a heating element configured to be heated upon receiving a supply of energy, wherein the heating element is positionable to heat and sever the line upon the heating element receiving said energy, wherein the heating element comprises at least one aperture through which the line is arranged, and wherein the heating element is movable along the line.
A packaging device for packaging a meat product (F) having a cylindrical or frusto-conical shape, the packaging device having a frame extending generally in the horizontal plane (xz) and an arm holder extending perpendicularly to said frame in the vertical plane (xy), said packaging device comprising; a rotator for accommodating the meat product (F) in an upright manner and rotating the same around its primary axis (y), a robot arm which is rotatably attached to the arm holder and which, in use, carries a roll of flexible coating material for wrapping on the surface of said meat product (F), characterized in that said packaging device further comprises a pair of locking blades which are adapted to move in the horizontal plane (xz) wherein said pair of locking blades compress the flexible coating material at the bottom end of the meat product such that the flexible coating material is matted on the bottom surface of the meat product when said meat product is rotated around its primary axis (y).
A single-stranded modified oligonucleotide consisting of 12 to 30 linked nucleosides for use in treating Angelman syndrome, wherein the nucleobase sequence of the modified oligonucleotide is at least 85% complementary over its entire length to an equal length region of a UBE3A-ATS nucleic acid sequence having the nucleobase sequence of SEQ ID NO: 1 or SEQ ID NO: 2; wherein the modified oligonucleotide targets a region of UBE3A-ATS that is immediately downstream of HBII-52 or MBII-52 snoRNA and upstream from the region of UBE3A-ATS complementary to the 3' end of the UBE3A pre-mRNA.
Method for transmitting electrical power and/or signals between a wall and a leaf which is pivotable with respect to said wall, said method using a transmission means and a means for detecting a magnetic field strength, wherein the magnetic field strength is detected in the surroundings of the transmission means and a fault signal is generated when a magnetic field strength threshold value is exceeded, and an electrical circuit arrangement is provided for detecting the magnetic field strength, which circuit arrangement is operated at a specific supply voltage, and the power demand of the circuit arrangement increases when a magnetic field having a strength which exceeds a threshold value is detected, wherein the circuit arrangement is designed such that the increase in the power demand when a magnetic field is detected is used to generate the fault signal.
An image capture apparatus adapted for detachable engagement with a lens unit , the apparatus comprising: a communication means for communicating with the lens unit , capable of switching between a first communication mode for capturing a still image transmitting first diaphragm control information to the lens unit and a second communication mode for capturing a moving image or live view operation transmitting second diaphragm control information different from the first diaphragm control information to the lens unit ; and a control means configured to control communication with the lens unit ; wherein the control means performs the communication control such that, until a diaphragm operation started based on either one of the first diaphragm control information and the second diaphragm control information is completed, the transmission of the other one of the first diaphragm control information and the second diaphragm control information is prevented. a communication means for communicating with the lens unit , capable of switching between a first communication mode for capturing a still image transmitting first diaphragm control information to the lens unit and a second communication mode for capturing a moving image or live view operation transmitting second diaphragm control information different from the first diaphragm control information to the lens unit ; and a control means configured to control communication with the lens unit ; wherein the control means performs the communication control such that, until a diaphragm operation started based on either one of the first diaphragm control information and the second diaphragm control information is completed, the transmission of the other one of the first diaphragm control information and the second diaphragm control information is prevented.
A method for determining timing advance grouping, comprising: adding (S101), by a base station, a component carrier, CC, for a user equipment, UE; determining (S102), by the base station, a timing advance, TA, group that the added CC belongs to, wherein the TA group is a set of CCs that can share a TA; characterized by sending (S103), by the base station in an radio resource control, RRC, connection reconfiguration message, identification information that identifies the TA group to the UE when adding the CC for the UE, wherein the identification information is an attribute parameter of the CC added for the UE; and sending, by the base station, an added extended TA command medium access control control element, MAC CE, to the UE when the base station needs to perform TA adjustment for the TA group, wherein the TA command MAC CE comprises the identification information that identifies the TA group and a TA adjustment value. adding (S101), by a base station, a component carrier, CC, for a user equipment, UE; determining (S102), by the base station, a timing advance, TA, group that the added CC belongs to, wherein the TA group is a set of CCs that can share a TA; characterized by sending (S103), by the base station in an radio resource control, RRC, connection reconfiguration message, identification information that identifies the TA group to the UE when adding the CC for the UE, wherein the identification information is an attribute parameter of the CC added for the UE; and sending, by the base station, an added extended TA command medium access control control element, MAC CE, to the UE when the base station needs to perform TA adjustment for the TA group, wherein the TA command MAC CE comprises the identification information that identifies the TA group and a TA adjustment value.
Process for forming a predetermined separation zone inside a donor substrate , in particular to be used in a process of transferring a layer onto a carrier substrate , the process comprising the following steps of: - providing a donor substrate comprising a surface comprising a chamfered zone in a zone of the edge of the donor substrate ; and - an atom and/or ion first implantation step carried out on said surface of the donor substrate , the atom and/or ion first implantation step being carried out such that the implantation dose in the zone of the edge of the donor substrate is lower than the implantation dose in a central zone of the donor substrate , characterized in that the process comprises a second atom and/or ion implantation step carried out over the entire surface of the donor substrate with an implantation dose that is lower than in the first implantation step. - providing a donor substrate comprising a surface comprising a chamfered zone in a zone of the edge of the donor substrate ; and - an atom and/or ion first implantation step carried out on said surface of the donor substrate , the atom and/or ion first implantation step being carried out such that the implantation dose in the zone of the edge of the donor substrate is lower than the implantation dose in a central zone of the donor substrate , characterized in that the process comprises a second atom and/or ion implantation step carried out over the entire surface of the donor substrate with an implantation dose that is lower than in the first implantation step.
A device for transcatheterly delivering a band to encircle a plurality of papillary muscles in a heart of a body, the device comprising: a catheter, including a proximal end and a distal end; a band configured to pass through the distal end of the catheter, wherein the band is configured to encircle the plurality of papillary muscles in a manner enabling the band to contact outer peripheral boundary portions of the plurality of papillary muscles and pull the plurality of papillary muscles toward each other; at least one guidewire configured to pass through the distal end of the catheter to loop around a plurality of papillary muscles, wherein the band is configured to cooperate with the at least one guidewire; a guidewire catching mechanism configured to catch an end of the at least one guidewire. a catheter, including a proximal end and a distal end; a band configured to pass through the distal end of the catheter, wherein the band is configured to encircle the plurality of papillary muscles in a manner enabling the band to contact outer peripheral boundary portions of the plurality of papillary muscles and pull the plurality of papillary muscles toward each other; at least one guidewire configured to pass through the distal end of the catheter to loop around a plurality of papillary muscles, wherein the band is configured to cooperate with the at least one guidewire; a guidewire catching mechanism configured to catch an end of the at least one guidewire.
Security element with excitation-dependent reciprocal effect with light in the non-visible wavelength range, comprising a substrate layer, and a security structure formed on the substrate layer, which is formed with a structural colour comprising microcapsules , in which colloidal particles are contained, which, by means of a structural excitation which comprises the formation of an electrical and/or magnetic field, can be arranged and/or rearranged in relation to one another in a crystal-like structure, wherein the crystal-like structure exhibits reflection and/or transmission properties for light that can be influenced and/or adjusted by way of the structural excitation, wherein the microcapsules , in the structurally-non-excited state, have an increased transmission capability and reduced reflection ability for at least one wavelength in the non-visible wavelength range, such that the security element, in the structurally-non-excited state, is transparent for the at least one wavelength in the non-visible wavelength range, and the microcapsules , in the structurally-excited state, in which, in the region of the microcapsules , an electrical field and/or a magnetic field exist(s), produced by the structural excitation, exhibit a reduced transmission capability and an increased reflection ability in comparison with the structurally-non-excited state.
Machine for transversely cutting logs of paper material comprising a cutting station (T) in which is arranged a cutting unit (CT) comprising an arm rotating about a horizontal axis (j) and on which it can mounted a blade adapted to perform the transverse cutting of one or more logs (L) of paper material introduced in the machine (M) and placed in said cutting station (T), wherein is arranged a loading station (LS) in which a support is provided for supporting a further blade intended to replace the blade mounted on said arm , and in which said support is connected to a mobile unit allowing it to be moved between said cutting and loading stations (T, LS), characterized in that the support is always provided with a blade-holder hub with a respective pin , the blade-holder hub being removably connected to the support .
An apparatus, comprising: a clamp including a first arm and a second arm , the first arm and the second arm configured to exert opposing forces to maintain a target tissue disposed between the first arm and the second arm; a first electrode head coupled to the first arm, the first electrode head including a first electrically insulating contact surface , a first electrode and a first cooling unit , the first contact surface configured to contact a first portion of the target tissue, the first cooling unit configured to maintain the first portion of the target tissue at a first target temperature; and a second electrode head coupled to the second arm, the second electrode head including a second electrically insulating contact surface , a second electrode and a second cooling unit , the second contact surface configured to contact a second portion of the target tissue, the second cooling unit configured to maintain the second portion of the target tissue at a second target temperature, characterized in that the first electrode and the second electrode collectively configured to deliver a DC voltage pulse waveform configured to irreversibly electroporate the target tissue with no direct current transfer between the electrodes. a clamp including a first arm and a second arm , the first arm and the second arm configured to exert opposing forces to maintain a target tissue disposed between the first arm and the second arm; a first electrode head coupled to the first arm, the first electrode head including a first electrically insulating contact surface , a first electrode and a first cooling unit , the first contact surface configured to contact a first portion of the target tissue, the first cooling unit configured to maintain the first portion of the target tissue at a first target temperature; and a second electrode head coupled to the second arm, the second electrode head including a second electrically insulating contact surface , a second electrode and a second cooling unit , the second contact surface configured to contact a second portion of the target tissue, the second cooling unit configured to maintain the second portion of the target tissue at a second target temperature, characterized in that the first electrode and the second electrode collectively configured to deliver a DC voltage pulse waveform configured to irreversibly electroporate the target tissue with no direct current transfer between the electrodes.
An adhesive composition comprising: (a) one or more epoxy resins; (b) a core-shell rubber in the form of primary particles; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; (d) one or more epoxy curing agents, and (e) a urethane resin in which isocyanate ends are blocked; wherein the core-shell rubber (b) in the form of primary particles has an average particle diameter of 10 nm to 300 nm, wherein the average particle diameter is determined as indicated in the specification; and wherein the core-shell rubber (b) in the form of primary particles has a ratio of the core particle diameter to the total particle diameter of the core-shell satisfying 0,8 to 0,99, wherein the ratio of the core particle diameter to the total core-shell particle diameter of the core-shell has the meaning indicated in the specification. (a) one or more epoxy resins; (b) a core-shell rubber in the form of primary particles; (c) a core-shell rubber in the form of secondary particles in which two or more core-shell rubbers in the form of primary particles are aggregated; (d) one or more epoxy curing agents, and (e) a urethane resin in which isocyanate ends are blocked; wherein the core-shell rubber (b) in the form of primary particles has an average particle diameter of 10 nm to 300 nm, wherein the average particle diameter is determined as indicated in the specification; and wherein the core-shell rubber (b) in the form of primary particles has a ratio of the core particle diameter to the total particle diameter of the core-shell satisfying 0,8 to 0,99, wherein the ratio of the core particle diameter to the total core-shell particle diameter of the core-shell has the meaning indicated in the specification. wherein the core-shell rubber (b) in the form of primary particles has an average particle diameter of 10 nm to 300 nm, wherein the average particle diameter is determined as indicated in the specification; and wherein the core-shell rubber (b) in the form of primary particles has a ratio of the core particle diameter to the total particle diameter of the core-shell satisfying 0,8 to 0,99, wherein the ratio of the core particle diameter to the total core-shell particle diameter of the core-shell has the meaning indicated in the specification.