mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: an interface configured to send and receive data over a network; and a hardware processor configured to: transmit, using the interface, a first series of profiles to a first user, the first series of profiles comprising recommended profiles for a second user; receive, using the interface, a selection from the first user (1 10b) of a profile corresponding to a third user; transmit, using the interface, a second series of profiles to the third user, the second series of profiles comprising recommended profiles for the third user; receive, using the interface, a selection from the third user (1 10c) of a profile corresponding to the second user; and in response to receiving the selection from the first user of the profile corresponding to the third user (1 10c) and receiving the selection from the third user of the profile corresponding to the second user, enable communication between the second user and the third user. an interface configured to send and receive data over a network; and a hardware processor configured to: transmit, using the interface, a first series of profiles to a first user, the first series of profiles comprising recommended profiles for a second user; receive, using the interface, a selection from the first user (1 10b) of a profile corresponding to a third user; transmit, using the interface, a second series of profiles to the third user, the second series of profiles comprising recommended profiles for the third user; receive, using the interface, a selection from the third user (1 10c) of a profile corresponding to the second user; and in response to receiving the selection from the first user of the profile corresponding to the third user (1 10c) and receiving the selection from the third user of the profile corresponding to the second user, enable communication between the second user and the third user. transmit, using the interface, a first series of profiles to a first user, the first series of profiles comprising recommended profiles for a second user; receive, using the interface, a selection from the first user (1 10b) of a profile corresponding to a third user; transmit, using the interface, a second series of profiles to the third user, the second series of profiles comprising recommended profiles for the third user; receive, using the interface, a selection from the third user (1 10c) of a profile corresponding to the second user; and in response to receiving the selection from the first user of the profile corresponding to the third user (1 10c) and receiving the selection from the third user of the profile corresponding to the second user, enable communication between the second user and the third user.
A method of reducing distortion in an additively manufactured part, the method comprising: depositing a composite including a metal particulate filler and a debindable matrix in successive layers to form a densification linking platform, densification linking supports, and a desired part, at least a portion of the successive layers deposited form at least one wall substantially enclosing an interior volume of the densification linking platform, the densification linking supports, or the desired part; forming a debinding acceleration structure having interconnected chambers and a plurality of access channels that penetrate one or more of the at least one walls exposing the composite such that, when exposed to a fluid debinder during a debinding process, the exposed composite forms a brown part assembly including the debound densification linking platform, the debound densification linking supports, and the debound part; debinding the composite by penetrating the fluid debinder into the debinding acceleration structure through the plurality of access channels to debind the matrix from within the interior volume of the densification linking platform, the densification linking supports, or the desired part; and sintering the brown part assembly to densify at a rate substantially common throughout the brown part assembly to form the part. depositing a composite including a metal particulate filler and a debindable matrix in successive layers to form a densification linking platform, densification linking supports, and a desired part, at least a portion of the successive layers deposited form at least one wall substantially enclosing an interior volume of the densification linking platform, the densification linking supports, or the desired part; forming a debinding acceleration structure having interconnected chambers and a plurality of access channels that penetrate one or more of the at least one walls exposing the composite such that, when exposed to a fluid debinder during a debinding process, the exposed composite forms a brown part assembly including the debound densification linking platform, the debound densification linking supports, and the debound part; debinding the composite by penetrating the fluid debinder into the debinding acceleration structure through the plurality of access channels to debind the matrix from within the interior volume of the densification linking platform, the densification linking supports, or the desired part; and sintering the brown part assembly to densify at a rate substantially common throughout the brown part assembly to form the part.
A computer program product comprising computer-executable code that, when executing on one or more computer devices performs steps comprising: receiving a plurality of location signals, each received location signal indicative of a respective location of a medical device in an anatomic structure of a patient; forming a three-dimensional data structure representing locations, within the anatomic structure, visited by the medical device at the locations corresponding to the plurality of location signals; receiving one or more anchor portions representing locations relative to the anatomic structure; and generating a three-dimensional surface representation of the anatomic structure of the patient, the three-dimensional surface representation of the anatomic structure of the patient constrained relative to the one or more anchor portions and to contain at least a portion of the three-dimensional data structure, and wherein generating the three-dimensional surface representation of the anatomic structure of the patient includes a volumetric smoothing, and further wherein the one or more anchor portions constrain the volumetric smoothing; displaying, on a graphical user interface, at least one of a two-dimensional projection of the three-dimensional data structure, the one or more anchor portions, and a two-dimensional projection of the three-dimensional surface representation. receiving a plurality of location signals, each received location signal indicative of a respective location of a medical device in an anatomic structure of a patient; forming a three-dimensional data structure representing locations, within the anatomic structure, visited by the medical device at the locations corresponding to the plurality of location signals; receiving one or more anchor portions representing locations relative to the anatomic structure; and generating a three-dimensional surface representation of the anatomic structure of the patient, the three-dimensional surface representation of the anatomic structure of the patient constrained relative to the one or more anchor portions and to contain at least a portion of the three-dimensional data structure, and wherein generating the three-dimensional surface representation of the anatomic structure of the patient includes a volumetric smoothing, and further wherein the one or more anchor portions constrain the volumetric smoothing; displaying, on a graphical user interface, at least one of a two-dimensional projection of the three-dimensional data structure, the one or more anchor portions, and a two-dimensional projection of the three-dimensional surface representation.
Implantable device comprising data communication means, said data communication means including means for altering an oscillatory electric field imposed on a conductive medium surrounding the implantable device, wherein the oscillatory electric field has a frequency within a range of approximately 50 kHz to approximately 1 MHz, wherein the means for altering an oscillatory electric field are configured to modulate an impedance of the conductive medium surrounding the implantable device when the implantable device is within an oscillatory electric field, further comprising switching means and at least two electrodes (18, 18') that are connected to the switching means so they can be electrically connected or disconnected, respectively, by the switching means, wherein the at least two electrodes are configured and arranged to cause a change of impedance of the conductive medium and the electrodes (18, 18') are connected or disconnected, respectively, by means of the switching means, wherein the switching means alternates the impedance between the at least two electrodes such that the oscillatory electric field is modulated and low frequency signals are not modulated.
A method for controlling at least one application of a mobile device, the method comprising: capturing environmental information from at least one sensor of the mobile device, wherein the environmental information indicates at least one environmental condition; inferring an environmental context of the mobile device based on the captured environmental information; and controlling the at least one application of the mobile device based on a set of reference models associated with the inferred environmental context, wherein controlling the at least one application comprises setting a duty cycle of an audio codec based on the inferred environmental context, the audio codec is used to monitor an input sound, wherein when the audio codec is in its on-duty state, the audio codec analyzes the input sound and activates the at least one application if the input sound is music and/or speech, wherein the at least one application is a sound inference application. capturing environmental information from at least one sensor of the mobile device, wherein the environmental information indicates at least one environmental condition; inferring an environmental context of the mobile device based on the captured environmental information; and controlling the at least one application of the mobile device based on a set of reference models associated with the inferred environmental context, wherein controlling the at least one application comprises setting a duty cycle of an audio codec based on the inferred environmental context, the audio codec is used to monitor an input sound, wherein when the audio codec is in its on-duty state, the audio codec analyzes the input sound and activates the at least one application if the input sound is music and/or speech, wherein the at least one application is a sound inference application.
An uplink channel transmission method, comprising: determining, by user equipment, UE, to transmit information by using first channels on n first time units numbered i, and transmit information by using second channels on m second time units numbered j, wherein a length of the first time unit numbered i is a first transmission time interval, TTI, a length of the second time unit numbered j is a second TTI, the second TTI is shorter than the first TTI, allocating, by the UE, transmit power to L uplink channels and transmitting, by the UE, the L uplink channels, wherein at least one first time unit numbered i and at least one second time unit numbered j overlap, and information transmitted by using the first channel and information transmitted by using the second channel respectively correspond to different cells; characterized in that the method further comprises determining, by the UE, a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum difference between n start transmission time points of the n first time units numbered i and m start transmission time points of the m second time units numbered j; wherein the UE allocates the transmit power to the L uplink channels according to the determined maximum uplink transmission time difference, wherein the L uplink channels comprise at least k second channels in the m second channels, and 1 ≤ k ≤ m. determining, by user equipment, UE, to transmit information by using first channels on n first time units numbered i, and transmit information by using second channels on m second time units numbered j, wherein a length of the first time unit numbered i is a first transmission time interval, TTI, a length of the second time unit numbered j is a second TTI, the second TTI is shorter than the first TTI, allocating, by the UE, transmit power to L uplink channels and transmitting, by the UE, the L uplink channels, wherein at least one first time unit numbered i and at least one second time unit numbered j overlap, and information transmitted by using the first channel and information transmitted by using the second channel respectively correspond to different cells; characterized in that the method further comprises determining, by the UE, a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum difference between n start transmission time points of the n first time units numbered i and m start transmission time points of the m second time units numbered j; wherein the UE allocates the transmit power to the L uplink channels according to the determined maximum uplink transmission time difference, wherein the L uplink channels comprise at least k second channels in the m second channels, and 1 ≤ k ≤ m.
A dust collecting device, which is adapted to be attached to a power tool actuating a tool bit which is coupled to a front end region of a tool body along a predetermined longitudinal direction, comprising: a dust collecting member which has a dust suction port for sucking dust, a holding member which is adapted to hold a dust transferring member of the dust collecting device with respect to the tool body, and an auxiliary handle designed to be held by a user and to be removably attached to the tool body, wherein the dust transferring member is removably attached to the holding member, and dust sucked up into the dust collecting member through the dust suction port is transferred downstream through the dust transferring member, wherein the auxiliary handle includes a mounting part which is mounted on the tool body, and a handle, and wherein the auxiliary handle includes an engagement part which is connected to the mounting part and engageable with the handle, characterized in that the handle extends in a handle extending direction crossing the longitudinal direction, the handle is engaged and secured to the engagement part by moving relative to the engagement part in the handle extending direction, and the holding member is adapted to be held between the engagement part and the handle by the relative movement of the engagement part and the handle in the handle extending direction. a dust collecting member which has a dust suction port for sucking dust, a holding member which is adapted to hold a dust transferring member of the dust collecting device with respect to the tool body, and an auxiliary handle designed to be held by a user and to be removably attached to the tool body, wherein the dust transferring member is removably attached to the holding member, and dust sucked up into the dust collecting member through the dust suction port is transferred downstream through the dust transferring member, wherein the auxiliary handle includes a mounting part which is mounted on the tool body, and a handle, and wherein the auxiliary handle includes an engagement part which is connected to the mounting part and engageable with the handle,
A reflector comprising a wholly aromatic liquid crystalline polyester amide resin compound that comprises a repeating unit derived from a hydroxybenzoic acid, a repeating unit derived from a hydroxynaphthoic acid, and a repeating unit derived from an aminobenzoic acid, but does not comprise a repeating unit derived from an aromatic dicarboxylic acid, wherein the wholly aromatic liquid crystalline polyester amide resin compound further comprises a white inorganic filler.
A fault current circuit breaker with a differential current transformer, a first grid-current-dependent differential current evaluation circuit controlled by the differential current transformer, which is connected with an operating-current trip, the operating-current trip actuating main contacts in monitored lines (L1,L2,L3,N) through a switching lock, whereby the grid power supply of the differential current evaluation circuit and/or the operating-current trip is in separable electrical connection with at least one line (L1, L2, L3, N) through auxiliary contacts coupled with the main contacts, characterized by a second grid-current-dependent differential current evaluation circuit controlled by the differential current transformer, with different response sensitivities of the two differential current evaluation circuits being selected so that the second differential current evaluation circuit responds at a preferably adjustable lower, preferably 60 - 90% lower, particularly 75 - 85% lower differential current than the first differential current evaluation circuit, and whereby the second differential current evaluation circuit opens and closes, through a switch, additional secondary auxiliary contacts, which are connected in series with the auxiliary contacts controlled along with the main contacts.
Closed processing system for treating elongated food products, comprising: - a housing bounding a process space, with a feed opening arranged in the housing and a discharge opening arranged in the housing for respectively carrying elongated food products into the process space and discharging elongated food products from the process space; - a transport path for displacing the elongated food products through the process space; - at least one airflow generator for generating an airflow in the process space; and - at least one detector for detecting process conditions in the process space, wherein the detector includes at least one pressure sensor for detecting the relative airflow pressure in the process space compared to the ambient air pressure, and wherein the system is arranged to control the process conditions by adjusting the at least one airflow generator based on the detected process conditions, wherein when a low ambient air pressure is detected, the airflow generator is controlled to provide a low airflow pressure in the processing space, and wherein when a high ambient air pressure is detected, the airflow generator is controlled to provide a high airflow pressure in the processing space, to minimize the exchange of air between the process space and the ambient air. - a housing bounding a process space, with a feed opening arranged in the housing and a discharge opening arranged in the housing for respectively carrying elongated food products into the process space and discharging elongated food products from the process space; - a transport path for displacing the elongated food products through the process space; - at least one airflow generator for generating an airflow in the process space; and - at least one detector for detecting process conditions in the process space,
Method of adjusting the electrical supply voltage for operation of at least one vehicle supplied by at least: - a first electrical energy storage unit on board the vehicle, - a ground electrical network providing the vehicle at least with a supply of energy by application of a supply voltage (Usol) via a means of electrical distribution (RAIL), wherein the first energy storage unit is controllable under two regimes termed generator and receiver, characterised in that: - in the generator regime, an algebraically additive (Uadd) supply voltage originating from the first electrical storage unit is applied to the distribution means (RAIL) so as to maintain a supply voltage (Urail) above a predefined minimum threshold (Urail_min); - in the receiver regime, if a surplus of supply voltage (Urail) originating at least partially from a second storage unit in the generator regime is detected above the minimum threshold (Urail_min), this surplus is channelled energetically to the first energy storage unit of said vehicle if it is required for the operation of said vehicle and makes it possible to maintain the supply voltage (Urail) below a predefined maximum threshold (Urail_max) and above the predefined minimum threshold (Urail_min). - a first electrical energy storage unit on board the vehicle, - a ground electrical network providing the vehicle at least with a supply of energy by application of a supply voltage (Usol) via a means of electrical distribution (RAIL), - in the generator regime, an algebraically additive (Uadd) supply voltage originating from the first electrical storage unit is applied to the distribution means (RAIL) so as to maintain a supply voltage (Urail) above a predefined minimum threshold (Urail_min); - in the receiver regime, if a surplus of supply voltage (Urail) originating at least partially from a second storage unit in the generator regime is detected above the minimum threshold (Urail_min), this surplus is channelled energetically to the first energy storage unit of said vehicle if it is required for the operation of said vehicle and makes it possible to maintain the supply voltage (Urail) below a predefined maximum threshold (Urail_max) and above the predefined minimum threshold (Urail_min).